Happy 2025, everyone!
May your year be filled with curiosity, discovery, and a deeper understanding of the amazing organ that powers it all—your brain! 🧠✨
Introduction
Portable brain devices, like the EMOTIV headset and the Muse S (see figures below), are transforming how we study the brain. These tools are taking neuroscience out of the lab and into classrooms, homes, and everyday environments. But how do they work, and why are they so promising for the future of research? In this blog, I’ll explore their potential, highlighting examples from recent studies that showcase their versatility and impact.
What Are Wearable Brain Tools?
Imagine a device that can measure your brain activity while you sit in your living room, attend a class, or even work on a challenging puzzle. That’s exactly what wearable brain tools like the EMOTIV headset can do! These portable devices use EEG (electroencephalography) to record brain activity by detecting electrical signals through electrodes placed on the scalp. Unlike traditional lab setups with bulky equipment and strict environmental controls, wearable tools are lightweight, wireless, and incredibly user-friendly—sometimes even marketed as “a smartwatch for your brain!”
One of their biggest advantages is accessibility and portability. These devices not only allow researchers to gain insights into brain activity but are also becoming increasingly available to the general public. For researchers, wearable EEG tools are a leap forward—they enable the collection of high-quality brain data in real-world settings, such as classrooms or homes. This is particularly valuable for studying children or individuals who might find labs intimidating. Moreover, wearable devices are more affordable than conventional lab-based systems, democratizing access to advanced neuroscience research for scientists, educators, and even curious individuals. With these tools, the possibilities for understanding and enhancing brain function are endless.
Why Are They Gaining Popularity?
- Accessibility
Unlike traditional lab-based systems, wearable brain tools can be used in natural settings like classrooms or homes. They’re easy to use, and with a little bit of practice, anyone can measure their own brain activity. - Portability
These wearable devices are compact and mobile, unlike the stationary lab-based systems. By making neuroscience research more adaptable, wearable tools open up new opportunities for gathering meaningful data in everyday contexts. - Innovation
Wearables like the EMOTIV headset are driving innovative studies outside the lab, such as investigating how children’s brainwaves relate to their ability to process numbers.
A Real-World Example: Children and Number Processing

An example of wearable brain tools in action comes from research conducted by Radboud University and Maastricht University. In this study, we used portable EEG devices to explore how children’s brains process numbers. By measuring brainwaves in a natural setting, we can observe activity in regions associated with numerical reasoning while children performed specific tasks. The results will be available soon and will provide valuable insights into the connection between brain activity and cognitive processes like number recognition and arithmetic skills. For instance, this study highlights differences in how children approach number processing tasks, which could inform tailored educational strategies. Understanding how children’s brains work while they learn can help educators develop interventions to support struggling students or optimize teaching methods for different learning styles. By using wearable tools, studies like this are paving the way for neuroscience to directly improve education, bridging the gap between the lab and the classroom.
Conclusion
Wearable brain tools, while revolutionary, do come with limitations. They’re less precise than traditional lab equipment and can be affected by movement or environmental noise in natural settings. However, ongoing advancements are steadily improving their accuracy, portability, and adaptability. In the future, wearable EEG devices could enable personalized cognitive training and tailored learning strategies, bringing neuroscience closer to everyday life and unlocking new possibilities for education and beyond.
Interested in learning more about how wearable tools are changing neuroscience? Stay tuned for upcoming posts!