Can Dizziness & Vertigo Be Neuroplastic?

How can dizziness be neuroplastic when I can physically feel the room moving?

Dizziness is one of those symptoms that can make the idea of neuroplasticity feel particularly hard to believe. If you’re dizzy, off-balance, lightheaded, rocking, swaying, floating, or walking around feeling like the floor isn’t quite where it’s supposed to be, the experience is incredibly physical. You may have had your ears checked, your eyes checked, your heart checked, your brain scanned, your blood drawn, and possibly collected an impressive number of acronyms along the way. Then someone mentions that your brain or nervous system could be contributing to the dizziness, and it can sound suspiciously like a nicer way of saying, We couldn’t find anything, so maybe you’re imagining it.

That’s not what I mean by neuroplastic dizziness.

There are many medical causes of dizziness, and new, severe, or unexplained dizziness deserves appropriate medical evaluation. Inner-ear disorders, neurological conditions, cardiovascular issues, medications, migraine, blood-pressure changes, and other medical problems can all cause dizziness. Sometimes an identifiable condition is still actively producing the symptom. But there is also a well-established category of persistent dizziness in which the brain’s processing of balance, movement, and visual information seems to become part of what keeps the symptoms going. One of the clearest examples is Persistent Postural-Perceptual Dizziness (PPPD), a vestibular disorder in which dizziness or unsteadiness persists for at least three months and is typically worsened by being upright, moving, or being around complex visual information. Interestingly, PPPD often begins after something that really did disrupt balance—a vestibular illness, migraine, medical event, or other episode of dizziness.

That last part is particularly interesting, because it’s a pattern I see throughout mind-body work: sometimes the thing that started a symptom and the thing keeping it going aren’t exactly the same thing.

Your brain is doing a lot more balancing than you realize

Most of us don’t think very much about balance until it stops feeling automatic. You walk through Target without consciously calculating where your body is in space, how quickly the shelves are moving past your peripheral vision, whether the floor is level, and exactly how much pressure is underneath your left foot compared with your right. Thank goodness, because buying toothpaste would take approximately four hours.

Behind the scenes, though, your brain is constantly integrating information from several systems. Your inner ears provide vestibular information about movement and orientation. Your eyes tell your brain what’s happening around you. Sensory information from your muscles and joints helps your brain understand where your body is in space. Your brain takes all of that incoming information, decides what’s important, and somehow produces the remarkably convincing experience that you’re standing still while the world is also standing still.

When that system gets disrupted, it makes sense for the brain to pay more attention. Imagine having your first terrifying episode of vertigo. One moment you’re fine and the next the room is spinning. You don’t know why. You don’t know whether it’s going to happen again. Suddenly something you’ve trusted your entire life—your ability to know where your body is in space—doesn’t feel trustworthy anymore. I’d start monitoring too.

You may become more conscious of how you feel when you stand up. You notice whether the grocery-store aisle makes you feel strange. You turn your head carefully because last time you turned it quickly, something happened. Maybe you avoid looking up, bending over, driving, scrolling on your phone, crowded restaurants, fluorescent lighting, or walking through stores with rows and rows of shelves. Things you once did without thinking can start to feel like tests your nervous system might fail.

None of that means you caused the dizziness by worrying about it. The dizziness usually came first.

But what happens next can matter.

When dizziness itself starts to feel dangerous

The brain is very good at learning from scary experiences. If you became violently dizzy in a grocery store once, your brain doesn’t need a formal meeting afterward to decide that grocery stores deserve a little extra attention. The next time you walk through those automatic doors, it already has information from last time. This is where that happened.

You might not even consciously feel afraid. Maybe you simply notice that you’re a little off. Then you start checking. You look down at the floor to steady yourself. You hold onto the cart more tightly. You scan your body to see whether the dizziness is getting worse. You become hyperaware of the shelves moving through your peripheral vision. And now your brain is receiving an enormous amount of information that says, Yes, apparently walking through the cereal aisle is a situation requiring our full attention.

This is where dizziness can start to develop a self-reinforcing quality. Research on PPPD describes changes in the way the brain weighs visual, vestibular, and postural information, along with increased vigilance toward balance-related sensations and threat. People can become more visually dependent, meaning the brain relies more heavily on visual information to orient itself. That’s one reason places like grocery stores, crowds, patterned floors, scrolling screens, or driving can feel so disproportionately awful.

And once your nervous system has become sensitized to those sensations, the dizziness doesn’t have to be fake for fear to make it worse.

I think that’s an important distinction. If you get dizzy, become frightened, and then become more dizzy, the first dizziness wasn’t imaginary and the second dizziness isn’t either. Your brain is continuously adjusting how much attention and importance it gives to sensory information. A nervous system that believes something is dangerous processes that information differently from one that feels safe enough to let it fade into the background.

We’ve all experienced much less dramatic versions of this. You notice a tiny itch while you’re trying to fall asleep, and suddenly it is the most important itch anyone has ever experienced. You become aware of your tongue in your mouth because I just mentioned it, and now I have ruined the next thirty seconds of your life.

Attention changes experience.

With persistent dizziness, that process can become much more powerful.

Sometimes the original problem is gone, but the brain hasn’t gotten the memo

One reason I find dizziness so interesting from a neuroplastic perspective is that persistent symptoms can begin with a completely legitimate physical event. Someone develops vestibular neuritis. Someone has a migraine. Someone experiences BPPV. Someone has a panic attack that includes intense dizziness. The original event settles down, but afterward they never quite feel normal again.

Maybe the spinning stops, but now they feel like they’re rocking. Or walking on a dock. Or floating. Or slightly drunk even though they haven’t had anything to drink. They can function, technically, but everything feels subtly wrong.

This doesn’t mean the original diagnosis was incorrect. It means the nervous system may have learned from what happened.

In PPPD, for example, researchers have proposed that normal short-term adaptations the brain makes during an episode of dizziness can fail to switch back off once the original problem resolves. Strategies that were useful while the balance system was genuinely disrupted—being hypervigilant, relying more heavily on vision, stiffening posture, consciously controlling balance—can become persistent. What began as an appropriate protective response can eventually become part of the problem itself.

That idea should sound somewhat familiar if you’ve read my articles about neuroplastic pain. The brain does something protective because it has a reason to. The circumstances change. The protection doesn’t. That’s one of the simplest ways I know to explain a lot of neuroplastic symptoms.

What clues might suggest a neuroplastic component?

I wouldn’t look at someone with dizziness and decide it was neuroplastic because their MRI was normal. A normal test can be reassuring and useful, but “they didn’t find anything” isn’t the same thing as “therefore this is neuroplastic.” I want more evidence than that.

I’m much more interested in the pattern.

Maybe you’ve been medically evaluated and your symptoms have persisted despite the original vestibular issue resolving. Maybe the dizziness varies dramatically depending on where you are or what you’re doing. You can sit on your couch and feel almost normal, then walk into a brightly lit store and suddenly feel like you’re on a boat. Maybe you’re considerably better when you’re distracted or absorbed in something. Maybe you have days when you realize at dinner that you barely thought about the dizziness all afternoon, followed by a morning when you wake up, check for it immediately, and there it is.

I also pay attention to learned triggers. Has your brain developed a very specific list of places, movements, or situations that mean dizziness is coming? Do you become symptomatic simply thinking about going somewhere that has triggered you before? Does watching movement on a screen bother you while watching something equally visually complicated in another context doesn’t? Does turning your head feel dangerous even though your vestibular testing no longer suggests that the movement itself is harmful?

None of these things proves anything individually. This is why I like using an Evidence List with clients. We’re not trying to talk you into a neuroplastic explanation. We’re looking at the evidence for and against it and seeing whether the pattern makes sense.

Sometimes the evidence points strongly toward learned and sensitized symptoms. Sometimes it doesn’t. And sometimes it’s both: there may still be a medical or vestibular contributor and the nervous system has become sensitized around it.

Bodies are inconveniently uninterested in fitting into our neat little categories.

What would PRT for dizziness actually look like?

If we’ve got good reason to believe that neuroplastic processes are contributing to someone’s dizziness, I don’t want to begin by telling them to spin in circles and prove they’re fine. I am generally not interested in throwing someone into the deep end to prove that they can swim.

I’d rather start with curiosity.

We might notice the dizziness itself. What does dizzy actually mean in your body? Is it spinning? Rocking? Floating? Pressure? Lightheadedness? A sense that your eyes can’t quite catch up with your head? Is it localized somewhere or more like a whole-body experience? Does it stay exactly the same when you observe it, or does it shift?

This is where somatic tracking can be useful. Instead of immediately responding to the sensation with Oh no, it’s happening again, we practice noticing it without automatically treating it as dangerous. We aren’t trying to stare it down until it disappears. In fact, constantly checking whether somatic tracking made you less dizzy is a pretty efficient way to turn a safety practice into another dizziness-monitoring practice. The goal is to give the brain a different experience with the sensation: This feels strange. I don’t like it. And I don’t necessarily have to treat it like an emergency.

We may also work with movement or environments the brain has learned to fear. If you’ve become afraid to turn your head quickly, walk through a store, look at a patterned floor, use a screen, or stand in a crowded room, we might gradually and thoughtfully approach those situations while helping your nervous system interpret the sensations differently. That doesn’t mean forcing yourself through overwhelming dizziness with clenched teeth while repeating I AM SAFE like you’re trying to win an argument with your brain. Fearful endurance can still feel an awful lot like danger.

The experience I’m looking for is closer to: Oh. I can feel a little off while I do this, and I’m okay.

Then we let the brain collect more of those experiences.

And more.

Until the thing that once required an enormous amount of protection becomes boring again.

The goal isn’t to convince yourself that you’re not dizzy

I think this is where nervous-system work can go wrong if we aren’t careful. Someone is clearly experiencing dizziness and we hand them an affirmation that says, I’m not dizzy. I’m safe.

Your brain is not stupid.

If the floor feels like it’s moving, insisting that you don’t feel anything isn’t particularly convincing. I would rather start with what’s actually true: I feel dizzy right now. My brain is producing a very convincing sensation of movement or imbalance. I’ve been medically evaluated. We’ve found evidence that my nervous system may be sensitized. This sensation is uncomfortable, but uncomfortable doesn’t automatically mean dangerous.

That’s a very different message.

And over time, the goal isn’t to become a person who is exceptionally good at coping with dizziness. The goal is for the brain to stop believing it needs to produce so much of it.

We have particularly good reason to believe that nervous-system learning and sensory processing matter in conditions like PPPD, and established treatment for PPPD can include vestibular rehabilitation, cognitive behavioral approaches, and medication depending on the individual. PRT itself has not been established through large clinical trials as a treatment for persistent dizziness or PPPD, so I wouldn’t tell someone that it has. What PRT offers is a framework for working with many of the processes that can accompany persistent dizziness: fear of sensations, hypervigilance, learned danger associations, avoidance, and the brain’s interpretation of bodily signals.

For some people, that may be one piece of treatment alongside vestibular or medical care. For others whose symptoms show particularly strong neuroplastic patterns, it may become a much bigger piece of the puzzle.

You don’t have to decide that nothing was ever wrong with your vestibular system to consider that possibility. You don’t have to pretend the dizziness isn’t real. And you don’t have to be 100% convinced that your brain is involved before you begin getting curious about the pattern.

Sometimes the question isn’t Why am I still dizzy if nothing is wrong?

It’s What has my nervous system learned through all of this—and does it still need to protect me this much?

If you’re wondering whether your dizziness or other symptoms show patterns consistent with neuroplasticity, my Neuroplastic Symptoms Self-Assessment is a good place to start. You may also want to read How Do I Know If My Symptoms Are Neuroplastic?, or What Is Somatic Tracking?.

And if you’ve been medically evaluated and want help looking at your own symptom history, I offer a free 15-minute connect call. You don’t need to come in already believing your dizziness is neuroplastic. We can look at the evidence together and figure out whether PRT seems like an appropriate direction for you.

Further Reading & Research

If you’d like to explore the research behind Persistent Postural-Perceptual Dizziness (PPPD) in more depth, these are helpful places to start:

Bárány Society Diagnostic Criteria for Persistent Postural-Perceptual Dizziness (PPPD)
The consensus criteria used to define and diagnose PPPD, including its characteristic symptoms, triggers, and clinical course.
Read the diagnostic criteria

Research on the Neural Mechanisms and Sensory Processing Involved in PPPD
This review of neuroimaging research looks specifically at what is happening in the brain in PPPD. Studies have identified differences involving visual, vestibular, sensorimotor, attentional, and emotional networks, supporting the idea that PPPD involves altered processing and integration of sensory information rather than simply ongoing damage to the vestibular system.
Explore the research

Reviews of PPPD Treatment, Including Vestibular Rehabilitation and Psychological Approaches
Reviews examining current approaches to PPPD treatment, including vestibular rehabilitation, cognitive and behavioral interventions, medication, and multidisciplinary care.
Read the treatment research

About the Author

Amberleigh Maida, ICF-ACC, is an Advanced Pain Reprocessing Therapy (PRT) Practitioner with additional training in Emotional Awareness and Expression Therapy (EAET). Having experienced and recovered from years of debilitating chronic pain herself, she brings both professional training and lived experience to her work. She also holds a master’s degree in creative writing with a focus on nonfiction. Through her writing, she explores neuroplastic symptoms, the brain-body connection, and evidence-based approaches to chronic pain and other persistent symptoms.

Learn more about Amberleigh’s personal story and approach or explore her professional credentials and training.

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