Forming strong social relationships with others is critical to our mental health and well-being. But what happens when our ability to form these vital connections is impaired? In this episode, Dr. Josh Woolley explores the social deficits in patients with Schizophrenia, and how oxytocin may hold the key to developing a better treatment.
If you could swallow a pill that would give you twenty extra years of healthy life, would you do it? In this episode of CTOR, we talk to Dr. Dena Dubal, a neurologist and neuroscientist at UCSF. Her research on a protein discovered completely by accident may hold the key to living longer, healthier lives more resilient to heart disease, Alzheimer’s disease, and dementia.
How is that possible? Listen to this month’s CTOR episode to find out!
Have you ever wondered what’s going on in a musician’s head while they improvise? In our latest episode, Dr. Charles Limb gives us a window to peer into the process of creativity as it happens: scanning the brains of jazz musicians and rappers as they improvise. Tune in to learn what brain processes allow creative thought, why creativity matters, and whether or not you might compose the next great rock ballad.
The world’s data are stored on millions of computers, or servers, that take up buildings’ worth of space and consume about as much electricity as France. How do we keep up with the increasing amount of data that we are generating? In this episode, we talk to bioinformatician Dina Zielinski about her unexpected solution: storing digital data on DNA.
Carry The One Radio goes live, at the California Academy of Sciences. We talk sex, drugs and rock 'n' roll with Dr. Indre Viskontas, a Neuroscientist and Opera singer, at Nightlife: Brain and Body. Hear why the music industry is obsessed with your brain, why drug addicts often die in hotel rooms, and why "The Wheels on the Bus" becomes intensely annoying as you grow up.
How does a three pound ball of flesh inside your skull lead to your thoughts, your hopes, your feelings...and your sweet dance moves? There are more cells in your brain than there are people on Earth. Billions of neurons making trillions of connections. Trying to figure out how your brain works would be like trying to understand every conversation that’s going on in the world, all at one time…ten times over! So how can we tackle this monumental task? Most scientists simplify the problem by focusing on a single part of the brain, but what if we took a different path? What if we could understand everything that’s going on in a brain, all at the same time? In this episode, Saul Kato explains how he’s doing just that.
From the basic biology to public policy: in this episode we tackle sugar. Find out what happens in our bodies when we eat sugar, as well as the disturbing tactics corporations use to get people hooked on products like soda and junk food. We then talk about soda taxes and other strategies Dr. Laura Schmidt and her colleagues are using to battle against the sugar industry.
In this episode, we chat with Dr. Joe DeRisi, UCSF’s resident Sherlock Holmes of infectious diseases. You’ll hear about a surprising discovery that could have enormous implications for controlling - or even preventing - future Ebola outbreaks. One of the big mysteries surrounding Ebola has been where it hides between outbreaks. Here, Dr. DeRisi uncovers an unexpected culprit that could be harboring this deadly virus.
In this episode, a team of researchers disprove a decades-old dogma. The result? The first ever FDA-approved drug for primary-progressive multiple sclerosis. In this inspiring story spanning decades of research, you’ll hear all the science, and all the dramatic twists, behind this radical new treatment.
For more information and links to the music used in this episode, please visit ctoradio.org
Scientists usually study biology in animals such as lab rats, but their discoveries do not always translate between species. What if we could study human biology specifically? In this episode, we talk to Dr. Jurgen Knoblich and Dr. Zev Gartner about their efforts to create organoids, which are miniature, simplified versions of organs created from human cells. Using these organoids, Drs. Knoblich and Gartner can study how human organs develop and how they are affected by disease. How do they make these organoids, and what will organoids mean for our future health?