TL;DR The brain learns new skills through a process of targeted rewiring and reorganization, particularly involving the motor cortex and thalamus. This process is crucial for both skill acquisition and recovery from neurological impairments.
Rewiring and Plasticity
Learning new skills involves the brain's ability to rewire itself in a targeted manner. This process is not merely about repetition but involves significant physical modifications across various brain regions [1:2],
[2:1]. The adaptability of the brain is evident in how it reorganizes its circuits to accommodate new movements or recover from injuries like strokes
[1:1].
Motor Cortex and Thalamus Interaction
Recent studies have highlighted the role of the primary motor cortex (M1) and the thalamus in learning new motor skills. The superficial layers of the M1 are key loci for learning-related plasticity. During the learning process, the thalamus activates specific subsets of M1 neurons, which then activate other neurons to generate learned activity patterns [5:1],
[5:4]. This interaction refines the influence of the thalamus on the motor cortex, facilitating the execution of learned movements
[3:3].
Implications for Therapy and AI
Understanding how the brain reshapes its circuits has significant implications for developing therapies for brain disorders and enhancing neuroprosthetic devices. By working with the brain's natural learning mechanisms, researchers can design better interventions for conditions such as stroke recovery [1],
[2]. Additionally, insights gained from studying neural changes during learning can inform the development of brain-like AI systems, potentially improving their efficiency and adaptability
[4:1].
Personal Experiences and Adaptability
The discussions also reflect personal experiences with learning and adaptability. Engaging in activities that challenge the brain, such as table tennis, can promote this rewiring process [1:2]. Moreover, the brain's flexibility is often observed in individuals recovering from traumatic brain injuries, highlighting its remarkable capacity for adaptation and recovery
[1:1].
“The study shows that learning isn’t just repetition,” said Ramot. “It’s about your brain literally rewiring itself in a targeted way. Whether you’re learning a new skill, recovering from a stroke or using a neuroprosthetic, understanding how brain regions reorganize their communication helps us design better therapies and technologies that work with the brain’s natural learning mechanisms.”
The takeaway is that our brains are constantly rewiring themselves.
Take up table tennis, push your boundaries, but keep at it.
Thanks for this! I took up table tennis a few years ago, but lately freeze a bit stepping to the side with affected leg. Could this be a sign I should learn something new?
I try my best to time medication so I am "on."
The whole "did I get a good night's sleep?" "Did I drink enough water?" "Did I remember to eat today?" "Did I remember my medication?" It's like my mind never relaxes, but if all those are good, just accept that you are there to have fun, tune everything out, and just play.
I'll queue Pinball Wizard in my head and play!
We often see the same seemingly miraculous flexibility among those people who have had strokes or people who have suffered traumatic brain injuries. Their recoveries, even if imperfect or partial, attest to the brain's adaptability.
Ever read any of Dr. Oliver Sacks' books? "The Man Who mistook his Wife for a Hat" is a fascinating read. Incidentally Sacks was one of the first to try dopamine replacement on his catatonic patients, which "woke " them from decades long mental paralysis.
Reference: Ramot, A., Taschbach, F.H., Yang, Y.C. et al. Motor learning refines thalamic influence on motor cortex. Nature (2025). https://doi.org/10.1038/s41586-025-08962-8
« The study shows that learning isn’t just repetition. It’s about your brain literally rewiring itself in a targeted way. Whether you’re learning a new skill, recovering from a stroke or using a neuroprosthetic, understanding how brain regions reorganize their communication helps us design better therapies and technologies that work with the brain’s natural learning mechanisms. »
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Reference: Ramot, A., Taschbach, F.H., Yang, Y.C. et al. Motor learning refines thalamic influence on motor cortex. Nature (2025). https://doi.org/10.1038/s41586-025-08962-8
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« The study shows that learning isn’t just repetition. It’s about your brain literally rewiring itself in a targeted way. Whether you’re learning a new skill, recovering from a stroke or using a neuroprosthetic, understanding how brain regions reorganize their communication helps us design better therapies and technologies that work with the brain’s natural learning mechanisms. »
Sophisticated synapse imaging used in NIH-funded project tracks changes within neurons as learning unfolds, offering new insights for brain-like AI systems
How do we learn new things? Neurobiologists using cutting-edge visualization techniques have revealed how changes across our synapses and neurons unfold. The findings depict how information is processed in our brain's circuitry, offering insights for neurological disorders and brain-like AI systems: https://www.science.org/doi/10.1126/science.ads4706
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>“During learning, these parallel and precise changes are generated by the thalamus activating a specific subset of M1 neurons, which then activate other M1 neurons to generate a learned activity pattern,” said Komiyama, a professor in the Departments of Neurobiology (School of Biological Sciences) and Neurosciences (School of Medicine), with appointments in the Halıcıoğlu Data Science Institute (School of Computing, Information and Data Sciences) and Kavli Institute for Brain and Mind.
Wow so the brain of that animal works in a way that is identical to the way the English language operates. So, there's activation of one layer of neurons and then they interact with the next layer... Wow, that's exactly how words work too.
Holy cow, next somebody is going to tell me that a single neuron can be represented as a single bit, which represents a state.
It was more about identifying the specific pathway, and nailing down the neural change that occurs, in the context of learning.
Glib oversimplifications and misrepresentations like yours must be so frustrating to the researchers.
>single neuron can be represented as a single bit, which represents a state.
This is so wildly inaccurate I'm surprised you had the confidence to post it.
Abstract:
The primary motor cortex (M1) is central for the learning and execution of dexterous motor skills, and its superficial layer (layers 2 and 3; hereafter, L2/3) is a key locus of learning-related plasticity. It remains unknown how motor learning shapes the way in which upstream regions activate M1 circuits to execute learned movements. Here, using longitudinal axonal imaging of the main inputs to M1 L2/3 in mice, we show that the motor thalamus is the key input source that encodes learned movements in experts (animals trained for two weeks). We then use optogenetics to identify the subset of M1 L2/3 neurons that are strongly driven by thalamic inputs before and after learning. We find that the thalamic influence on M1 changes with learning, such that the motor thalamus preferentially activates the M1 neurons that encode learned movements in experts. Inactivation of the thalamic inputs to M1 in experts impairs learned movements. Our study shows that motor learning reshapes the thalamic influence on M1 to enable the reliable execution of learned movements.
For all my life I’ve struggled with school and I’ve always been decent but not great or good enough in my perspective and today my brother said that he saw a video and it said adhd is caused by trauma and we were talking about it and he said you should train your brain because he said my brain works differently and it explains how everyone around me get how to do the things for example math but I couldn’t and I’m just wondering how do I train my brain?
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Doing puzzles and fun things that require sustained attention can help, you can do mindfulness/grounding exercises to avoid getting lost in daydreams and to help with self regulation,
most interventions for ADHD become more effective when combined with medication though, since ADHD affects your ability to learn, practice and implement skills and strategies.
Trauma does not cause ADHD, trauma can cause similar symptoms, but the root cause for those symptoms is different and they need to be addressed in a different way, I have both PTSD and ADHD, the symptoms looks similar, they can be described using the the same words, but there's a huge difference in how I have to work with those symptoms depending on where they come from.
As a middle aged child of Boomers, I see how hard learning new technology has been for my parents. I'm not sure whether they never developed the skill of learning new technologies (in which case we might have better luck) or if the calcification of learning is an inherent part of aging.
This article doesn't have particular insight on that question, but I keep hoping somebody will.
Not exactly long form, but a useful interview. Thanks for linking!
I didn’t see any mention of adult learning, specifically, in their discussion, but I’m interested enough to check out his book. I switched careers at 45, into a very information heavy field, and I’ve been alarmed at the extra effort I’ve had to put into locking certain vital concepts in. I arrived there on my own, but the author’s suggestion to ask yourself questions/explain things is spot on.
SS: Q: What's the capital of Australia? In his new book, Learn Better, author and education researcher Ulrich Boser digs into the neuroscience of learning and shows why it’s so hard to remember facts like that one. As we’re all getting dumber in the age of Google, this interview with Boser examines what people can do to boost their memories and skill sets. (A: Canberra.)
Op, have you had a chance to read it yet?
I once came across this, no clue where I heard it or what it is from:
Q: do you know how a toilet works?
A: everyone says yes, of course!
Q: OK, draw how the toilet works
A: some people can, many cannot
So basically, we often have a superficial knowledge that we mistake for real knowledge and to go between those levels requires digging in.
Is the concept something like this?
The illusion of explanatory depth!
Yeah, it's not a long piece, but I thought he made some good points, one of which is along the example you give:
"Really what we want to do is to be able to think in that way, so that it shifts our reasoning abilities. If we want to learn to become a car mechanic, you want to learn the reasoning abilities of a car mechanic. My favorite example of what it means to be expert, are the Car Talk guys. Because it’s such a weird thing, people call them and they have a car problem, but the Car Talk guys can’t actually see the car. Someone will call and be like, "I have this issue with my Buick, and it makes this weird noise," and they're able to solve the issue.
They’re thinking about their own Buicks, their own car problems, to help you solve your car problems. You want to learn the systems, or the analogies, of the relationships between things in a certain field, and how they interact with each other. Then ultimately you gain that knowledge so that you can shift your own thinking, so when you see a new problem you’re better able to solve it."
Also:
Khazan: Why is teaching other people such an effective learning strategy?
Boser: It’s not that different from explaining ideas to yourself. Self-explaining has a lot of evidence. You're explaining why things might be interconnected, and why they matter, and those meaningful distinctions between the two of them. The other thing that's particularly helpful about teaching other people is that you have to think about what is confusing about something, and how you'd explain that in a simpler way, and so that makes you shift the way that you're thinking about a certain topic.
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I’ve been thinking a lot about how our brains engage with learning differently as we age, and how eLearning platforms might not always account for that.
When you're a child, your brain is full of plasticity. You're learning languages, absorbing behaviors, building mental models from scratch. In adulthood, learning often becomes more goal-directed; we’re busy, more critical, and often learning under time pressure. And later in life, the brain’s processing speed slows, but pattern recognition and emotional intelligence improve.
From a neuroscience perspective, how do things like dopamine, attention, memory formation, and even cognitive load differ across life stages? And how should eLearning platforms adapt to that?
Curious to hear different perspectives! Also, has anyone come across any great research or practical insights on how the brain’s learning process evolves -and how digital learning should evolve with it?
I've taught pretty much age bracket (elementary, high school, university, adult learners in corporate and even senior citizens).
You're on the right track where neuroplasticity is involved, but imo its a distraction. Trying to min/max learning based on brain science ignores that nature is only half of the equation, nurture and the environment make a huge difference.
My biggest takeaways from my breadth of experience:
Kids are tethered to the learning environment, so you can use certain strategies that take advantage of their captivity. Adults on the other hand have agency to leave. Your strategies to engage must recognize that. In some cases its making the WIINFM very loud. In other cases its making the content shorter (not my fave). But ultimately, recognizing their agency is key to making the experience better.
Specific strategies from K12 are still very effective for adults. Most adult learning professionals have only every taught adults, although this is shifting as many K12 practitioners migrate into corporate learning. As someone who has done both, my K12 pedagogy and practice are still very effective with adult learners, provided I remember point #1 above.
Adults need to feel respected at every stage of the learning. When I work on general programs that are multi-audience (beginners and experts alike need to take it), its helpful to open with a statement that acknowledges that experts are taking this course/experience and that if they see something they know, its a high five and reinforcement of their knowledge, not an invitation to check out.
Adults carry their baggage from their education experience into their adulthood, which shapes their biases and prejudices for learning. This is a big part of why I'm a supported of healthy K12 practices coming into adult learning (eg. balancing formative and summative assessment, UDL, etc). You can re-write and re-negotiate adult relationships with learning when you create a great experience. Good luck on getting budget to do so though.
Scientists gave university students mild electrical stimulation while they solved math problems.
And it improved their math skills.
The technique, called transcranial random noise stimulation, uses electrode caps to send weak electrical signals to certain parts of the brain. The researchers focused on two brain regions: one that helps with problem-solving and another that helps with memory. They found that people with weaker connections between these areas improved their math performance by up to 29% after the stimulation. Some even scored higher than students who had stronger brain connections to begin with. The electrical signals seem to work by making brain cells more active and helping balance brain chemicals that control activity levels. However, students who already had strong brain wiring didn’t get any extra benefit. The researchers say this method could help people who struggle with learning by giving their brains a small boost, especially in subjects like math where early gaps tend to grow over time. Still, they caution that this kind of brain stimulation should not be done at home, and there are ethical concerns if it only becomes available to people who can afford it. Other methods that can help improve math skills include regular practice, breaking problems into smaller steps, using visual aids, and strengthening number sense. Educational apps, peer learning, and spaced repetition can support learning, while building a growth mindset encourages persistence.
I zapped myself lightly a few times changing all the outlets in an old house. Maybe I should take a course in theoretical physics and see if I'm any smarter.
Or some electrician courses?
First aid at least.
I believe it.
I apprenticed to an electrician who loved to talk math, algebra, trig and calculus. He also loved to touch bare wires and live change outlets and fixtures. Bit of a death wish in there too, obviously, but his math was great! 👍
It might be time to go back to teaching. Where's my taser?
Timmy: the answer is X square -100.. Teacher: Oh Timmy that is incorrect…….juicem!!!
Thanks, but I think I'll pass
Overclocking the brain!
Just like weightlifting helps us grow muscle with a progressive training plan, what are the equivalent activities for the brain? Not about “aesthetic” intelligence (like showing off trivia knowledge), but functional, pragmatic skills that make our mind stronger at actually doing things. What kinds of exercises or progressive challenges can we practice to gradually improve our mental performance over time, just like adding more weight to the bar in the gym?
The brain is not like a muscle, it does not improve generally with general practice. Want to get better at math? Then do math problems. However, doing math problems won’t help you with understanding other people’s emotions.
What exactly do you want to get better at? Figure that out and then do as much of that thing as you can.
But the same goes for the brain too.
Reading more, for example, builds linguistic skills, memory, imaginative/creative thinking, curiosity, even empathy all at once, albeit to varying degrees, and not necessarily in everyone.
Yes, math won't help you understand people's emotions. But if we were to extend the scope to physical training as a whole rather than OP's slightly narrow example of weightlifting, different forms of training build very different physical abilities, many of them not overlapping past a negligible degree.
General practice does work. It's just not always exhaustive, and your cognition is not the only thing this applies to.
I’ll agree that there would be some overlap in improvement with similar cognitive tasks. You are correct.
However, some people vastly oversimplify this to the absurd. Though, maybe I was too restrictive in my initial comment.
You don’t believe the brain works like a muscle? New neural connections can be made with novel experiences and cognitive activities. Is this not correct?
A consistent mindfullness meditation practice is a workout for your mind and brain, every time you notice you are distracted and bring your attention back to an object of focus (eg. your breath) is another rep.
Research has suggested prefrontal cortex and hippocampus thickening, and reducing of the amygdala from long term meditation practice.
From my own experiences meditating for 10+ years, I've found it makes me able to think much clearer, makes me less reactive emotionally, quicker to laugh and feel joy, less anxious. I notice the difference during periods when I've stopped for a while. I highly recommend.
Sam Harris's Waking Up is a great guided meditation app, that also include loads of really interesting side content about consciousness. They offer a free 6 month scholarship for anyone not able to afford, which is given and renewed with no questions asked.
Actual weightlifting and some good aerobic activity is a great place to start.
Reading a lot, and for extended periods.
Writing a lot, and for extended periods.
Contemplation and meditation
how the brain learns new skills
Key Considerations on How the Brain Learns New Skills:
Neuroplasticity: The brain's ability to reorganize itself by forming new neural connections throughout life. This is crucial for learning new skills, as practice strengthens these connections.
Practice and Repetition: Regular practice is essential for skill acquisition. The more you practice, the more efficient the neural pathways become, leading to improved performance.
Feedback Mechanisms: Receiving feedback helps refine skills. Positive reinforcement encourages repetition, while constructive criticism helps identify areas for improvement.
Cognitive Load: Learning new skills can be challenging. It's important to manage cognitive load by breaking tasks into smaller, manageable parts to avoid overwhelm.
Engagement and Motivation: A strong interest in the skill being learned enhances motivation, which can lead to more effective learning. Engaged learners are more likely to persist through challenges.
Sleep and Rest: Adequate sleep is critical for memory consolidation. The brain processes and solidifies new information during sleep, making it essential for skill retention.
Takeaways:
By understanding these principles, you can optimize your approach to learning new skills effectively.
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