The recent New Scientist article follows one aphantasic journalist's attempt to visualize a tropical potoo bird under the guidance of meditation coach Alec Figueroa, framing the experience as both frustrating and potentially hopeful. While the piece effectively captures the isolation of discovering one's lack of visual imagery in one's 30s and the rise of online communities like Reddit's Cure Aphantasia (nearly 3,000 members sharing unverified techniques), it largely remains at the level of personal anecdote. What it misses is the deeper connection to neuroplasticity research, the methodological weaknesses plaguing the field, and how these efforts probe fundamental questions about consciousness that mainstream science reporting often sidesteps.

To understand the bigger picture, we must start with the origin of the term. In 2015, neurologist Adam Zeman at the University of Exeter published a peer-reviewed study in the journal Cortex examining 21 individuals who reported lifelong absence of visual mental imagery (methodology: detailed questionnaires, behavioral tests measuring object recognition and memory, plus self-reported dream characteristics; key limitation: small sample size and complete reliance on subjective reports, as objective neural markers were not uniformly applied). This built on an earlier 2010 case study of a man who lost imagery after heart surgery. These papers established aphantasia as a spectrum rather than a disorder, with roughly 4% of people at the extreme 'no imagery' end according to subsequent UK population surveys.

Synthesizing this foundational work with a 2021 peer-reviewed fMRI study by Fulford and colleagues (Cerebral Cortex, n=24 aphantasics versus 24 controls with strong imagery; methodology: participants performed imagery and perception tasks while scanned, revealing reduced connectivity between frontal control regions and visual cortex in aphantasics but preserved abstract reasoning networks) shows the brain isn't simply 'broken' in aphantasia. Instead, it has reorganized, often leading to compensatory strengths in verbal, abstract, or spatial processing. This pattern mirrors other neurodivergent adaptations, such as enhanced auditory processing in congenitally blind individuals. The New Scientist story barely nods to these advantages or the fact that many aphantasics report lower PTSD symptom severity because they lack intrusive visual flashbacks.

Recent training attempts add another layer. A 2023 preprint (not yet peer-reviewed) from researchers at the University of New South Wales tested perceptual learning combined with neurofeedback in 14 adults with aphantasia over ten sessions. Participants practiced associating auditory cues with gradually more complex visual patterns, with real-time fMRI feedback. About 36% reported modest gains on the Vividness of Visual Imagery Questionnaire, but effect sizes were small, the sample was tiny, there was no long-term follow-up, and placebo controls were limited. These constraints matter: unlike the coach-based approaches popularized online, rigorous methods reveal change is possible but far from guaranteed or transformative.

This research connects directly to broader neuroscience debates on neuroplasticity. Just as adults can recover partial motor function after stroke through intensive retraining that recruits adjacent brain areas, the visual cortex in aphantasics may retain latent plasticity. Yet the original coverage overlooks how this challenges dominant theories of consciousness. If mental imagery is a core component of conscious experience for some (as proposed in theories linking sensory qualia to global workspace models), the fact that aphantasics navigate the world effectively using non-visual simulations suggests consciousness is more plural and constructible than we assume. It raises the question: are we training people to join the 'normal' conscious experience, or simply expanding the repertoire of possible internal worlds?

Mainstream reporting also gets wrong the implicit assumption that developing a mind's eye is inherently desirable. For many, aphantasia is not a deficit but a neutral cognitive style, potentially protecting against conditions like maladaptive daydreaming. The rush toward self-help solutions, often sold by coaches without clinical credentials, risks pathologizing a difference that genome-wide association studies suggest has deep genetic roots alongside environmental shaping.

Ultimately, aphantasia training experiments are most valuable not as individual fixes but as windows into the adult brain's adaptability. They reveal that the neural infrastructure for imagery exists on a continuum and can, in some cases, be nudged. However, without large-scale randomized controlled trials (current studies rarely exceed n=30 and suffer from selection bias toward motivated participants), claims of 'curing' aphantasia remain premature. This work forces us to reconsider not just how we see with the mind's eye, but how our brains construct the very fabric of conscious reality itself.