>
THE CEUTA CROSSING: Anatomy of a Manufactured Crisis
Unlocking Nature's Healing Potential -- The Power of DMSO and Botanical Combinations
Federal Court Dismisses Musk's X Lawsuit Against New York Law Forcing Platforms To Define Speech
Does Ultra-Fast Charging Ruin An EV Battery? BYD Did It 350 Times In 9 Days To Find Out
Singapore is experimenting with biological computing using living human neurons...
It's Happening - Europe is Building an Impossible Fusion Reactor
Portable 1MW Kaleidos Microreactor Secures Critical Nuclear Fuel Deal Through 2030s
This New All-In-One Range Extender Is Ready To Go Into Any Electric Truck
Aptera Reveals The Secret To Building Its Solar EV: China
High-voltage sodium home battery emerges as affordable rooftop solar solution
Peter Thiel-Funded Company Anduril to Triple the Number of Autonomous Surveillance...
China has released Origin Pilot, claimed to be the world's first open-source operating system...
ShieldAI XBAT Drone Fighters Can Give A Fighter Drone Wing to Every US Destroyer
Brain organoids, kept alive more than five years, matured like human brains

In addition to training better future surgeons, the approach could help skill acquisition in other industries.
Motor learning allows us to develop new skills, like mastering a tennis serve or, in the case of a surgeon, developing precision suturing skills. These days, surgeons are likely to learn these types of skills in a virtual reality (VR) environment before they transition to the real world.
Researchers at Johns Hopkins University in the US have developed a method of improving how medicos learn surgical skills in a virtual environment so that their learned skills are transferred more effectively to a real-life scenario.