The Icahn School of Medicine at Mount Sinai: From Start-up to Innovation Hub

How a new stand-alone medical school grew into one of the nation’s leading centers for scientific and medical advancement.

Four Nobel Laureates attend the dedication of the Mount Sinai School of Medicine in 1968, joining George James, MD, second from left, as he is inaugurated as the first Dean and President. The four are, left to right, Linus Pauling, George W. Beadle, Sir Peter Medawar, and Francis Crick.

Operating out of a converted garage, it was an ambitious, bold, and risky entrepreneurial venture fueled by dreams of not merely disrupting the status quo, but also changing the world in ways that could touch the lives of millions of people.

It was a start-up before there was such a thing as Silicon Valley:  a new medical school looking to break the mold of medical education and biomedical research. Fifty years after opening its doors, the Icahn School of Medicine at Mount Sinai now stands as one of the top medical schools in the United States.

Rather than open a school under the safe auspices of a university—the model for the vast majority of medical schools—the trustees of The Mount Sinai Hospital decided to go it alone, planning to dramatically build on the hospital’s century-old legacy of compassionate patient care and scientific research to increase its influence on modern medicine.

“Extensive research programs must be continued to develop new drugs, new techniques, new equipment,” proclaimed Mount Sinai’s Board of Trustees in declaring its intention of establishing a medical school “to meet the growing needs of our community, to move ever forward.”

So Mount Sinai purchased an old New York City municipal bus depot at 10 East 102nd Street for $7 million, renovating it into classrooms, lecture halls, laboratories, and offices. “Mount Sinai Opens Its Medical School in Old Bus Garage,” read the less-than-auspicious headline in The New York Times on September 7, 1968.

As part of our 50th anniversary celebration, Mount Sinai has collaborated with Scientific American to prepare a special digital section about innovation.

The Mount Sinai School of Medicine, as it was then called, would be no ordinary medical school. In addition to ensuring its independence (a simple affiliation with the City University of New York helped it gain accreditation), the School’s founders were deeply committed to a new concept of community medicine. In an article titled “The Mount Sinai Concept,” published in the journal Clinical Research, Hans Popper, MD, Chief of Pathology at The Mount Sinai Hospital and a driving force behind the creation of the medical school, described the foundation of a medical education as a tripod consisting of “exact biology,” human studies, and community medicine that “strives to give in a setting of specialists good care to every patient and every disease including pre-symptomatic stages.” It was a revolutionary concept—studying a community’s medical needs and attempting to proactively prevent disease—but an early precursor to what is practiced today as population health.

From its inception, the Mount Sinai School of Medicine was committed to admitting a diverse student body, particularly lower-income students who, at the time, often could not gain the opportunity to study medicine. Not only would Mount Sinai maintain a commitment to equal opportunity and diversity of background, but also to breadth of thought that would promote a creative, intellectual environment. “We are training physicians who, with their own efforts … are going to see that problems are solved,” said George James, MD, Mount Sinai School of Medicine’s first dean. “The test of their effectiveness is the solution of the problem, not the mere multiplication of a technique.”

The first White Coat Ceremony for first-year medical students is held in 1998.

The School would go on to live up to its vision to be like no other.

With only 36 MD students in its initial first-year class, plus 23 third-year medical students and 19 PhD students, the School’s small size was designed to allow close interaction between instructors and students. When members of the faculty attempted to eliminate the pass/fail grading system, which was meant to promote learning for learning’s sake over a grade-obsessed, pressure-cooker environment, first-year student Kenneth L. Davis and his classmates were offended.

So they rebelled, recalled Dr. Davis, who 35 years later would become the School’s dean and then President and Chief Executive Officer of the Mount Sinai Health System.

The Annenberg Building is dedicated in 1974 with Vice President Gerald Ford as principal speaker.

“We came to Mount Sinai because of educational innovation, anticipating an active role in the building of this new school,” Dr. Davis wrote in the first issue of The Sinai New Press, a campus newspaper he founded as a forum of protest. Student demand “for a truly integrated curriculum—implementation of the Sinai Concept—has been met with an attempt to impose an inappropriate status quo—to smother our aspirations.”

He and other students won a meeting with Gustave Levy, Chairman of the Mount Sinai Boards of Trustees. The students prevailed and, to this day, the School’s grading system remains pass/fail.

Dr. Davis would soon find his niche at the School of Medicine. When the opportunity arose to choose electives, he connected with the pharmacological sciences department to pursue his interest in neuroscience involving the chemistry of catecholamines—a group of neurotransmitters that includes epinephrine, norepinephrine, and dopamine.  Working closely with Sherwin Wilk, PhD, transformed Dr. Davis’s Mount Sinai experience. “This department saved me,” he said. “I spent every afternoon working in his lab.” By the time of his graduation, Dr. Davis had written more than 10 papers on catecholamine chemistry and depression and was well on his career path to becoming an influential neuroscientist. “The opportunities were there to do science at an intense level,” he said. “Mount Sinai changed my life because it began my scientific career.”

A transformational step

The opening in 1973 of the Annenberg Building—at the time, the largest structure for a medical school in the world—was transformational for the School of Medicine. “That’s the turning point. It‘s a huge research building; we needed to fill it with scientists. We went from a ‘mom and pop’ shop in a garage to a full-scale tower with a real medical school,” said Dr. Davis.

Kenneth L. Davis, MD, MSSM ’73

The Mount Sinai School of Medicine grew steadily for the next two decades. Then, in 1996, Mount Sinai and New York University announced a plan to merge their hospitals and medical schools. Numerous differences led to the deal’s unraveling, and in the aftermath, Mount Sinai and its School of Medicine faced a financial crisis.

In April 2003, Dr. Davis, then Chair of the School of Medicine’s Department of Psychiatry, was tapped to become Dean of the School of Medicine. Ten weeks later, Peter May, Chairman of the Mount Sinai Boards of Trustees, asked Dr. Davis to also assume leadership of the entire Mount Sinai Medical Center.

“I realized how deep within me this school’s welfare is. And I wanted to do something about it. If I had a goal, it was to make sure such a crisis never happens again,” said Dr. Davis. “I knew I had an irreversible bond to this place. I wasn’t going to let it go down. I wasn’t going to let it go down.”

Dr. Davis turned to Dennis Charney, the Dean of Research who was to become the School of Medicine’s next leader, to develop a strategic plan for creating interdisciplinary research institutes that would attract top talent to the School to conduct groundbreaking studies, advance scientific knowledge, enhance medical education, and benefit Mount Sinai patients. Using the strategic plan as a basis,  Drs. Davis and Charney and the trustees engineered a gritty turnaround, emphasizing growth rather than the cost reduction recommended by a consultant. The  highly successful fundraising campaign, launched in 2007, culminated with donations from investor Carl Icahn that totaled $200 million, leading to the School’s renaming as the Icahn School of Medicine at Mount Sinai.

In 2013, the Medical School is renamed Icahn School of Medicine at Mount Sinai in honor of Trustee Carl Icahn.

Carrying on the ambitious approach that first inspired the School’s founding, Dr. Charney, the Anne and Joel Ehrenkranz Dean and President for Academic Affairs of the Mount Sinai Health System, has implemented his strategic plan by recruiting brilliant, ambitious investigators who believe the impossible is possible, and are willing to take the necessary high-risk conceptual leaps. Those recruits include mathematicians and computer scientists who are working to fulfill the promise of precision medicine by using Mount Sinai’s two supercomputers to exploit secrets of the human genome. “It’s not enough to get NIH (National Institutes of Health) grants and publish in prestigious journals. You have to make discoveries that change the lives of our patients. That’s the ultimate outcome measure we have to hold ourselves to,” said Dr. Charney.

Among the many contributions to biomedical sciences that have emerged from the School of Medicine’s laboratories are:

• Development of the first genetically engineered vaccine, for influenza

• Mapping of the influenza virus genome and progress toward a universal flu vaccine

• Identification of a biochemical predictor of preterm labor and delivery

• Development of an ultrasound-guided technique for insertion of radioactive seeds into the prostate for treatment of prostate cancer

• The first use of cholinesterase inhibitors to treat Alzheimer’s disease and improve cognition

• Discovery of a peptide that stimulates release of insulin from beta cells in the pancreas, which helps patients control their diabetes and prevent complications • Development of the first “black-blood” MRI, which allows cardiologists to identify thickening of the artery wall

• Development of Fabrazyme® to treat individuals suffering from Fabry disease, a rare but devastating metabolic condition

• A new technique for administering ketamine, a drug that can effectively treat depression in a matter of hours

• The discovery that immune cells start to be dysfunctional very early during tumor formation, suggesting that immunotherapy can be effective much earlier than currently believed

Adding to the wide-ranging intellectual environment at Mount Sinai are its multi-talented students, many of whom arrive without a traditional premed background.  The Donald and Vera Blinken FlexMed Program grants early assurance of admission to applicants after two years of college, permitting exceptionally promising students from any field of study to pursue their undergraduate passions and then bring their perspectives to the School. “All of our students contribute a great deal to the creativity and innovation of the School. They contribute to the idea of openness of thought and perspective on what we’re doing, why we’re doing it, what type of risks we’re willing to take,” said David Muller, MD, Dean for Medical Education and the Marietta and Charles C. Morchand Chair for Medical Education. “It’s important to question dogma, to be skeptical about what you’re hearing, so you can challenge it in a constructive way because that’s what drives change,” said Dr. Muller.

A new campaign is launched in 1985 to rebuild the hospital’s facilities, including an I. M. Pei-designed pavilion named for the Guggenheim family, supporters of the hospital from the early 1900s.

Mount Sinai’s Graduate School of Biomedical Sciences, which grants PhDs and master’s degrees and is home to a large number of postdoctoral trainees, is also a core component of the Icahn School of Medicine. The Graduate School seeks to add advanced scientific perspectives, knowledge, and skills beyond those typically found in medical training, including computational thinking, problem-solving, teamwork, commercialization, and entrepreneurship, said Marta Filizola, PhD, Dean of the Graduate School of Biomedical Sciences.

Being part of a stand-alone medical school, rather than a large university, is a strength, according to Dr. Filizola.

“We fully benefit from a nimble and responsive administrative structure that allows us to quickly implement transformative changes,” Dr. Filizola said. “Since our faculty are exclusively focused on graduate and post-graduate education, we are able to provide the time, resources, expertise, and personalized training experience that brings out the absolute best in a trainee.”

Creating a culture of innovation 

Central to the culture of innovation at Mount Sinai is an attitude that gives researchers the freedom to fail—the opportunity to pursue their best ideas, which may or may not lead to the next great discovery. The School and its leaders passionately believe failure is a component of learning, an opportunity for growth that will yield solutions. “I want people who are not satisfied with the status quo. They have a courageous, scientific mind that will push the envelope,” said Dr. Charney. “I’m not happy if my department heads are telling me they’re satisfied, everything is all okay.”

Gary Rosenberg, PhD; Enrique Riggs, DDS; Gary Butts, MD; and New York City Mayor David Dinkins at Harlem Week, 1992

This approach has paid off. Mount Sinai researchers collectively have generated more funding from the National Institutes of Health than any other stand-alone medical school. The Icahn School of Medicine ranks No. 2 in total research funding per Principal Investigator among U.S. medical schools and 14th in overall National Institutes of Health funding.

To facilitate the translation of Mount Sinai research discoveries into new diagnostics and treatments for patients, the School has hired leading technologists, intellectual property attorneys, and business executives with deep start-up experience, some transplanted from Silicon Valley. In 2017, that team, part of Mount Sinai Innovation Partners, generated 211 patents, 144 new inventions, 162 industry-sponsored and collaborative academic research agreements, and 53 new licenses and options for use of Mount Sinai scientists’ research. Mount Sinai has spun out nine companies, including the recently launched Sema4, which is dedicated to improving diagnosis, treatment, and prevention of disease through deep data analysis using knowledge and technology from the Department of Genetics and Genomic Sciences.

“We are determined to positively impact patient lives,” said Erik Lium, PhD, Executive Vice President of Mount Sinai Innovation Partners. “We’re taking concrete steps to accelerate the translation of commercially relevant technologies that can serve as the foundation for new products and therapies.”

One of the most innovative organizations

The School’s commitment to innovation and creativity recently led Nature magazine to name Mount Sinai one of the 10 most innovative research organizations in the world, based on contributions to published research that are later cited by other organizations in patent development. Fast Company magazine named the Icahn School of Medicine among the “World’s Top Ten Most Innovative Companies in Big Data” in 2014 and again in 2016, highlighting the School’s recruitment of top talent to map patients’ genomes, its investment in supercomputers for data analysis and research, and the BioMe™ database of genomic samples from 44,000 patients.

“I’m most proud of creating a culture of innovation that enables us to do great things here: basic science breakthroughs, discovery of new drugs, designing new health systems, and improving ways of caring for the poor,” said Dr. Charney.

That culture of innovation will be the foundation for the Icahn School of Medicine’s future. A half-century after fighting to ensure Mount Sinai would become more than just another medical school with a traditional approach to education, Drs. Davis and Charney have a vision for the next 50 years: for the School to be a leading innovator that can generate better scientific understanding and improved treatments that will diminish suffering, cure diseases, prolong life, and continue to change the world.

Researchers Advance the Understanding of How Viruses May Play a Role in Alzheimer’s Disease

Joel Dudley, PhD, right, and Sam Gandy, MD, PhD, led a study that used an entirely data-driven approach to examine the impact of viruses on Alzheimer’s disease.

Two strains of human herpesvirus—human herpesvirus 6A (HHV-6A) and human herpesvirus 7 (HHV-7)—are found in the brains of individuals with Alzheimer’s disease at levels up to twice as high as in those without Alzheimer’s, according to findings published June 21, 2018, in Neuron by a team of Icahn School of Medicine at Mount Sinai researchers.

These common viruses, best known for causing roseola, a skin rash in children, can also be present in the brain and remain inactive for years. They also can cause encephalitis and other chronic disorders.

It is the first study to use an entirely data-driven approach to examine the impact of viruses on Alzheimer’s—and to identify potential disease-associated roles of these particular viruses, which was an unexpected discovery.

The researchers had been comparing genetic data in healthy and postmortem Alzheimer’s brains to identify possible new drug targets for Alzheimer’s disease when their complex computations revealed the unusually high levels of the viral genomes.

“This study represents a significant leap forward in our understanding of how viruses may play a role in Alzheimer’s disease,” says the study’s senior author, Joel Dudley, PhD, Mount Sinai Professor in Biomedical Data Science, and the Director of the Icahn School of Medicine’s Institute for Next Generation Healthcare. “We were able to not only measure these viruses using computational techniques but also build out the networks in which these viruses are operating and influencing known Alzheimer’s genes.”

The study was enabled in part by powerful new molecular profiling data released by the National Institute on Aging (NIA) Accelerating Medicines Partnership-Alzheimer’s Disease, a collaboration among industry, government, and nonprofit organizations dedicated to identifying new targets for preventing or treating the disease. Using those data, the team conducted computer mapping of four brain regions from more than 600 samples from the Mount Sinai Brain Bank, which for the last 36 years has been examining postmortem brain tissue from donors for Alzheimer’s-related research.

As the study progressed, the team found the higher levels of HHV6A and HHV7 viruses, which was subsequently confirmed using data from brain banks in three other major NIA Alzheimer’s Centers. Researchers also discovered that the viruses appeared to accelerate the development of Alzheimer’s-related plaques and tangles in the brain.

“Our team was initially quite skeptical about these findings,” says the study co-senior author, Sam Gandy, MD, PhD, Mount Sinai Professor in Alzheimer’s Research and the Director of the Center for Cognitive Health and NFL Neurological Care at Mount Sinai. “Gradually, we became convinced that what we were seeing is a real property of Alzheimer’s brains in several internationally recognized brain banks, and that we ought to report it, even if we cannot completely explain what these viruses are doing in the brain.”

Although the study does not prove a direct causal role between these herpesviruses and Alzheimer’s disease, or indicate what activates the viruses, the findings do lend credence to the hypothesis that these herpesviruses may trigger progression of dementia in Alzheimer’s. This work also opens new avenues for the identification of subpopulations and biomarkers, which would not only make it easier to diagnose and determine a person’s risk of developing Alzheimer’s but also possibly create opportunities to use existing antiviral drugs and drugs that stop the brain’s immune cells from responding to these viruses.

“We have been inundated with letters and emails from people sharing stories about viral infection and Alzheimer’s disease in their personal or family life, and that is an impetus for us to find an effective therapy as soon as we can,” Dr. Dudley says.

Experimental “Brain Glue” Helps Save the Life of a Teen Patient

The Mount Sinai team that used an experimental treatment was led by interventional neuroradiologist Alejandro Berenstein, MD, and included Michelle Sorscher, RN, MSN, Clinical Program Manager, Neurosurgery.

When, in early 2017, the teacher of 14-year-old Shawn Svoboda called to say he was falling asleep in class, his mother wasn’t overly concerned, considering it typical teenage behavior.

However, when the teacher called a second time that same day to emphasize she thought this was something out of the ordinary, his mom requested that their pediatrician order a sleep study, as she had noticed subtle changes in Shawn, such as snoring, pulsating neck veins, muffled voice, clumsiness, and headaches, all of which she had chalked up to changes of puberty.

The results showed Shawn was suffering from central sleep apnea at the rate of 150 episodes per hour, and a brain MRI was immediately scheduled at their local hospital in Springfield, Massachusetts. The MRI showed an extensive, potentially lethal, arteriovenous (AV) fistula—an abnormal connection between an artery and a vein—at multiple sites in the brain, creating a complex tangle of blood vessels in the dura, or outer covering of the brain. Shawn was then referred for a genetics consult and a cardiology workup and met with a pediatric neurosurgeon in Connecticut.

After performing a brain angiogram, the neurosurgeon told Shawn’s parents that the condition was more extensive than originally believed and recommended that they take him to The Mount Sinai Hospital, to be seen by Alejandro Berenstein, MD, Professor of Neurosurgery, Radiology, and Pediatrics, at the Icahn School of Medicine at Mount Sinai, and Director of the Pediatric Cerebrovascular Program. Dr. Berenstein is a world-renowned interventional neuroradiologist who has vastly expanded the understanding and treatment of vascular abnormalities in the brain, pioneering the use of innovative substances to incrementally block off these abnormal blood vessels.

Without treatment, Dr. Berenstein says that Shawn was at risk for developing more neurological deficits, seizures, hemorrhage, or stroke. “He was a walking time bomb,” says his mom, Bonnie Kmon, RN, and an oncology certified nurse.

Typically, Dr. Berenstein would treat an AV fistula by injecting a standard medical-grade super glue—a lava-like embolism agent—through a catheter to seal the blood vessel, guided by real-time X-ray imaging.

Shawn’s situation was more complex: the extensive quantity needed would appear black in the X-ray, making it impossible for the surgical team to see what they were doing.

Dr. Berenstein was familiar with a different, liquid embolic super-glue substance being used outside of the United States called PHIL™ (Precipitating Hydrophobic Injectable Liquid), which is less dense and, using iodine, appears grey, instead of black, on an X-ray, making it possible to clearly see the areas being treated.

However, PHIL has not yet been approved by the U.S. Food and Drug Administration (FDA), so Dr. Berenstein and his team successfully petitioned the FDA to grant approval for a single patient compassionate use of PHIL, making Mount Sinai the first institution in the nation to use this agent. Dr. Berenstein was able to block off the abnormal blood vessels a few at a time.

The procedure had to be done in stages to allow the brain and heart to adjust to new blood-flow patterns. It took seven eight-hour procedures, over the course of more than a year, to complete treatment, and Shawn’s road to recovery was not an easy one. He developed blood clots in his brain on two separate occasions, had one grand mal seizure, and now needs to receive twice-daily injections of a blood thinner.

Amazingly, he has suffered no significant neurological deficits, his sleep apnea has completely resolved, he has better balance, is performing wonderfully in school, and no longer suffers from headaches. His genetics workup also showed that he suffers from PTEN Hamartoma Tumor Syndrome, which will require him to have continual yearly monitoring for other medical problems.

“Shawn’s recovery has been extraordinary,” says Dr. Berenstein. “Time will tell, but I expect this to be a permanent fix and I think he’ll continue to do very well.”

Shawn’s mom echoed his assessment, and is grateful, she says, to Dr. Berenstein and his “phenomenal” team of doctors and nurses who cared for Shawn throughout his journey.

Dr. Alejandro Berenstein receives financial compensation as a consultant for MicroVention, the manufacturer of the Precipitating Hydrophobic Injectable Liquid System (PHIL).

Could Dogs Serve as Hosts for the Next Flu Pandemic?

Study investigators Adolfo García-Sastre, PhD, left, and Guojun Wang, PhD, Postdoctoral Fellow

Dogs are becoming increasingly friendly hosts for a surprising array of influenza viruses, a situation that could pose a potential threat to humans. That is the finding of a new study from the Global Health and Emerging Pathogens Institute at the Icahn School of Medicine at Mount Sinai, published June 5, 2018, in mBio.

The results were based on scientific evidence that dogs in southern China had the capacity to serve as “mixing vessels” for influenza viruses they receive from swine and birds—two animals considered to be the most common reservoirs of influenza viral genetic diversity.

“The more diversity we see in influenza viruses, the greater the chance they could jump from one host to another,” says the study’s lead author, Adolfo García-Sastre, PhD, Professor of Microbiology at the Icahn School of Medicine, and Director of the Global Health and Emerging Pathogens Institute. He is also Director of the Center for Research on Influenza Pathogenesis, one of five National Institutes of Health (NIH) Centers of Excellence for Influenza Research and Surveillance. The research took place in the Guangxi region of southern China, an area where diverse animal species are raised in proximity to one another and intermingle in live-animal markets.

In the study, researchers swabbed the noses of some 800 dogs that had all been brought to veterinarians or clinics in the region after showing respiratory symptoms consistent with canine influenza. The scientists sequenced the complete genomes of 16 influenza A viruses obtained from the dogs. All of these strains represented introductions of H1N1 swine influenza viruses circulating in pigs in Asia and Europe into these dogs.

They also found a set of three new viruses (H1N1r, H1N2r, and H3N2r) in which these swine-origin canine influenza viruses exchanged genes with previously identified avian-origin H3N2 canine influenza viruses.

Flu viruses have eight mini chromosomes and when two different strains infect the same cell they can exchange genetic segments, a process known as reassortment. All pandemic flu viruses that have been tracked have involved reassortment. The 2009 H1N1 swine-origin human influenza pandemic, for example, was a derivative of two different strains of swine influenza, one that had been circulating in Asia and Europe and the other in the Americas, particularly North America. That pandemic virus traced to a very small region in central Mexico, and was responsible for more than 17,000 deaths worldwide when it jumped from pigs into humans.

There is no known case of a human contracting a canine flu. Nor is it certain that the new strains of dog flu virus discovered in China would have that transmission capability. Still, as Dr. García-Sastre points out, the potential exists, especially in light of the frequent contact between pets and their owners. Moreover, the health risk increases for humans who have not previously been exposed to these viral strains and have not built an immunity to them.

Dr. García-Sastre does not predict a new pandemic, but he says there is a need for additional research and heightened vigilance by public health authorities around the world.

“We must start thinking about dogs as potential reservoirs for influenza viruses,” he says. “The more awareness we create, the more likely that countermeasures can be developed by countries to diminish the circulation of influenza virus in domestic animals.”

Paying Tribute to a Giant in Medicine

Dr. Holland’s children, from left: David Holland; Diane Holland; Sally Holland; Peter Holland; Mary Holland; and Steven Holland, MD.

Family, friends, and colleagues of the late James F. Holland, MD, Distinguished Professor of Neoplastic Diseases at The Tisch Cancer Institute, gathered in May at the Mount Sinai Health System to celebrate his work as a renowned physician-scientist who helped cure acute lymphoblastic leukemia in children.

Dr. Holland’s work helped establish oncology as a medical discipline. In the 1950s, when chemotherapy was a relatively new treatment, he and his colleagues began treating seemingly incurable patients with drug combinations rather than administering each one sequentially. Nine out of 10 patients successfully responded to the therapy. Combination chemotherapy remains the standard of care today.  Dr. Holland encouraged physicians to share data and create common protocols. In 1972, he received the prestigious Albert Lasker Clinical Medical Research Award.

James F. Holland, MD

Speakers at Mount Sinai’s Celebration of Life event included many esteemed physicians from around the country whom Dr. Holland influenced and once mentored, as well as Mount Sinai leaders in academic affairs and cancer research. Dr. Holland’s six adult children attended the event, with several sharing their thoughts and memories.

In his opening remarks, William K. Oh, MD, Deputy Director of The Tisch Cancer Institute and Chief of Hematology and Medical Oncology, said Dr. Holland “was absolutely committed to changing the poor outcomes of patients with leukemia, breast cancer, and other devastating cancers by investing in translational research and clinical trials, principles that drive our work at The Tisch Cancer Institute today.”

Raising Awareness for Biomedical Research

Panelists included, from left: Anthony Fargnoli, PhD, Assistant Professor, Medicine (Cardiology); Jonathan A. Cohen, DVM, Director, Center for Comparative Medicine and Surgery; Paula Croxson, PhD, Assistant Professor, Neuroscience, and Psychiatry; Yasmin Hurd, PhD; Stacey Baker, PhD, Assistant Professor, Oncological Sciences; and Randy Albrecht, PhD, Associate Professor, Microbiology. Not pictured, Giorgio Martinelli, PhD, Associate Professor, Neurology.

Seven researchers and veterinarians from the Mount Sinai Health System discussed humane animal research at a panel held at Hatch Auditorium to commemorate Biomedical Research Awareness Day (BRAD) on Thursday, April 19. They joined more than 110 other international institutions in acknowledging the important role that laboratory animals play in advancing new treatments for complex conditions that include, but are not limited to, Alzheimer’s disease, cancer, and addiction.

“Animal models that mimic the human condition can help us focus on one chemical in an effort to start to figure out new treatments,” said Yasmin Hurd, PhD, Director of the Addiction Institute at Mount Sinai, who works with rodents to study the developmental effects of cannabis. Through these studies, Dr. Hurd has found that cannabidiol—a chemical found in marijuana—can be used in humans to decrease opioid-seeking behavior.

“For a very long time, the scientific community has been quiet about animal research,” said Jaclyn R. Steinbach, BVetMed (Hons), MRCVS, Clinical Veterinarian and Instructor, Center for Comparative Medicine and Surgery, who was the organizer of the event. “We need to share what we are doing and show that we are proud.”

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