No matter what your goal, learning and skill acquisition are major bottlenecks to success. But what if you could reduce the time it took for you to learn? Our guest today, Dr. Daniel Chao has spent his career doing just that!  After graduating from Stanford Medical School with an MD in neuroscience, Dr. Chao started developing tech that primes your brain for learning. The result... Halo Sport.

In this episode, Dr. Chao and Ben dive into how learning happens in the brain and more importantly how we can influence it.  They discuss the mechanism behind Halo Sport's success and how they have improved it for the soon to be released Halo Sport 2. 

If you would like to pre-order the Halo Sport 2, use the code muscleintelligence for $20 off the already discounted pre-order price!

 

This episode is brought to you by our friends at Four Sigmatic! Mushrooms are one of the best ways to support learning, sleep, your immune system and more.  Get 15% off your order when you use the code muscle at checkout on FourSigmatic.com

Time Stamps

• How the status quo around the brain is broken. [0:44]
• Why drugs for the brain don’t work very well. [5:50]
• The idea of zero sum. [9:55]
• The history of neurostimulation. [13:40]
• What does the research show and what are the potential implications when we subject our brain to stimulation? [16:20]
• Has Halo Sport seen any quantitative data to support bumps in performance? [25:50]
• How are they collecting data from the brain? [33:45]
• Understanding their place in science. [36:06]
• How does Halo 2 differ from Halo 1? [39:05]
• Have they seen any synergetic effects? [43:43]
• What is Halo Sport currently excited about? [46:41]

Featured Guest

• Daniel Chao (@danielchao) | Twitter

Related Links/Products Mentioned

• Halo Neuroscience
• Pharmacology - Wikipedia
• Halo Sport - Science – Halo Neuroscience
• Neuropace - NeuroPace, Inc
• What is Transcranial Direct-Current Stimulation (tDCS)?
• tDCS Research
• The Athlete’s Guide to the Brain: Motor Skill Learning
• Maximum voluntary isometric contraction: reference values and clinical application.
• Reliability of time-to-exhaustion versus time-trial running tests in runners.
• Sensory Evoked Potentials Studies | Johns Hopkins Medicine