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Balancing Risk and Cutting Edge Medical Innovation — Dr. Paul Offit, MD, Director, Vaccine Education Center, Children’s Hospital of Philadelphia.


Dr. Paul A. Offit, MD, (https://www.paul-offit.com/) is an internationally recognized expert in the fields of virology and immunology, Co-Inventor of a landmark vaccine for the prevention of Rotavirus gastroenteritis, and holds multiple titles including — Director of the Vaccine Education Center at Children’s Hospital Of Philadelphia (CHOP), Maurice R. Hilleman Chair of Vaccinology and Professor of Pediatrics, Perelmann School of Medicine, University of Pennsylvania, and Adjunct Associate Professor, The Wistar Institute of Anatomy and Biology.

Dr. Offit was a member of the Advisory Committee on Immunization Practices to the Centers for Disease Control and Prevention, a founding advisory board member of the Autism Science Foundation and the Foundation for Vaccine Research, a member of the Institute of Medicine, and co-editor of the foremost vaccine text, Vaccines.

Dr. Offit is a recipient of many awards including the J. Edmund Bradley Prize for Excellence in Pediatrics from the University of Maryland Medical School, the Young Investigator Award in Vaccine Development from the Infectious Disease Society of America, a Research Career Development Award from the National Institutes of Health, and the Sabin Vaccine Institute Gold Medal.

Dr. Offit has published more than 150 papers in medical and scientific journals in the areas of rotavirus-specific immune responses and vaccine safety. He is also the co-inventor of a landmark rotavirus vaccine recommended for universal use in infants by the CDC.

An artificial intelligence (AI)-based technology rapidly diagnoses rare disorders in critically ill children with high accuracy, according to a report by scientists from University of Utah Health and Fabric Genomics, collaborators on a study led by Rady Children’s Hospital in San Diego. The benchmark finding, published in Genomic Medicine, foreshadows the next phase of medicine, where technology helps clinicians quickly determine the root cause of disease so they can give patients the right treatment sooner.

“This study is an exciting milestone demonstrating how rapid insights from AI-powered decision support technologies have the potential to significantly improve patient care,” says Mark Yandell, Ph.D., co-corresponding author on the paper. Yandell is a professor of human genetics and Edna Benning Presidential Endowed Chair at U of U Health, and a founding scientific advisor to Fabric.

Worldwide, about seven million infants are born with serious genetic disorders each year. For these children, life usually begins in intensive care. A handful of NICUs in the U.S., including at U of U Health, are now searching for genetic causes of disease by reading, or sequencing, the three billion DNA letters that make up the human genome. While it takes hours to sequence the whole genome, it can take days or weeks of computational and manual analysis to diagnose the illness.

Summary: Researchers have linked Fragile X and SHANK3 deletion syndrome, two disorders associated with autism, to specific microscopic walking patterns.

Source: Rutgers.

Rutgers researchers have linked the genetic disorders Fragile X and SHANK3 deletion syndrome – both linked to autism and health problems – to walking patterns by examining the microscopic movements of those wearing motion-sensored sneakers.

A team of researchers at UT Southwestern Medical Center’s Touchstone Diabetes Center have successfully used CRISPR gene editing to turn fat cells normally used for storage into energy-burning cells.

“It’s like flipping a switch. We removed the ‘brake’ on the energy burning pathway in by engineering a mutation that disrupts the interaction between a single pair of proteins,” said study leader Rana Gupta, Ph.D., Associate Professor of Internal Medicine. “Our research demonstrates that releasing this brake in fat cells can potentially help make existing much more effective.”

The research at UT Southwestern, ranked as one of the nation’s top 25 hospitals for diabetes and endocrinology care, is published in Genes and Development and supported by the National Institutes of Health.

Extreme heat can kill or cause long-term health problems – but for many unendurable temperatures are the new normal.


Extreme heat can also cause “leaky gut”, in which toxins and pathogenic bacteria to seep in to the blood, increasing the likelihood of infections, says Walter. It is almost possible to develop a kind of sepsis infection by being hot, he says. “Gut permeability seems to be a big, big problem.”

In a world-first, US surgeons have successfully transferred a kidney taken from a pig into a braindead human patient, in a major step towards using animal organs in human transplantations.

The team at NYU Langone Health performed the operation on a woman who was recently declared braindead, with the permission of her family. The sole object of the study, according to the lead surgeon Dr Robert Montgomery, was “to provide the first evidence that what appears to be promising results from non-human primates will translate into a good outcome in a human.”

One major obstacle in making xenotransplantation possible has been the rejection of organs by hosts. To overcome this, the team used an organ from a pig that had been genetically engineered in order to remove a sugar molecule known to play a significant role in rejection. The surgeons attached the kidney to large blood vessels outside of the recipient and monitored it for two days.

Integrated And Cross-Disciplinary Research Focused on Diagnosing, Treating And Curing Cancers — Dr. Antonio Giordano MD, PhD, President & Founder, Sbarro Health Research Organization.


Dr. Antonio Giordano, MD, Ph.D., (https://www.drantoniogiordano.com/) is President and Founder of the Sbarro Health Research Organization (https://www.shro.org/), which conducts research to diagnose, treat and cure cancer, but also has diversified into research beyond oncology, into the areas of cardiovascular disease, diabetes and other chronic illnesses.

Dr. Giordano is also a Professor of Molecular Biology at Temple University in Philadelphia, a ‘Chiara fama’ Professor in the Department of Pathology & Oncology at the University of Siena, Italy, and Director of the Sbarro Institute for Cancer Research and Molecular Medicine, and the Center for Biotechnology, at Temple’s College of Science & Technology.

In his research throughout the years, Dr. Giordano has identified numerous tumor suppressor genes, including Rb2/p130, which has been found to be active in lung, endometrial, brain, breast, liver and ovarian cancers, as well as interesting synergistic effects of gamma radiation in combination with this gene, accelerating the death of tumor cells.

Dr. Giordano went on to discover Cyclin A, Cdk9 (which is known to play critical roles in HIV transcriptions, inception of tumors, and cell differentiation), and Cdk10. Dr. Giordano also developed patented technologies for diagnosing cancer.

Artificial intelligence is transforming industries around the world — and health care is no exception. A recent Mayo Clinic study found that AI-enhanced electrocardiograms (ECGs) have the potential to save lives by speeding diagnosis and treatment in patients with heart failure who are seen in the emergency room.

A dedicated practitioner, Adedinsewo is a Mayo Clinic Florida Women’s Health Scholar and director of research for the Cardiovascular Disease Fellowship program. Her clinical research interests include cardiovascular disease prevention, women’s heart health, cardiovascular health disparities, and the use of digital tools in cardiovascular disease management.

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Exercise leaves muscles riddled with microscopic tears, so after a rigorous workout, the control centers of muscle cells — called nuclei — scoot toward these tiny injuries to help patch them up, scientists recently discovered.

In the new study, published Oct. 14 in the journal Science, researchers uncovered a previously unknown repair mechanism that kicks in after a run on the treadmill. Striking images show how, shortly after the exercise concludes, nuclei scuttle toward tears in the muscle fibers and issue commands for new proteins to be built, in order to seal the wounds. That same process likely unfolds in your own cells in the hours after you return home from the gym.