What Is a Visual Learner

Short answer

• A visual learner is a person who tends to prefer learning through things that can be seen and organized visually, such as diagrams, charts, maps, timelines, and color coded notes. The label describes a preference, not a fixed type of brain, a measure of intelligence, or a diagnosis. Many people who say they prefer visual material also learn well from discussion, reading, and hands on practice, and the same person may prefer a diagram for one subject and a spoken explanation for another. That distinction matters because the popular idea behind the label is contested. Researchers have found ample evidence that people express preferences about how they like to learn, but they have not found adequate evidence that matching teaching to a supposed learning style improves learning. Visual tools can still be useful, but their value usually comes from fitting the material, not from fitting a label. A map helps with geography because place and distance are spatial. A flowchart helps with a process because it shows order and branching. A chart helps with data because it shows pattern at a glance. In each case, the representation matches the content.

What the Term Means in Plain Language

In everyday language, a visual learner is someone who says, in effect, “Show me, and I will understand it better than if you only tell me.” That preference often shows up as a liking for written instructions over spoken ones, for a worked diagram over a long paragraph, or for a sketch that turns an abstract idea into something that can be looked at, rearranged, and revisited.

It helps to separate three ideas that are often mixed together:

1. Preference. What a learner likes or chooses first. A student may reach for a diagram before reading a chapter. That is a preference, and preferences are real in the sense that people report them and act on them.
2. Ability. What a learner can do well. A student may be skilled at reading maps, drawing diagrams, or spotting patterns in a chart. That skill may come from practice, interest, or prior teaching, not from belonging to a separate category of learner.
3. Need. What a learner must have in order to learn at all. Saying that a visual learner can only learn visually would be a much stronger claim, and it is not supported by the research discussed later in this article. Most learners can learn from more than one kind of material, even if they enjoy one kind more.

For practical purposes, it is best to treat “visual learner” as shorthand for a study preference that can guide choices about notes and revision, not as a verdict about how a person must be taught.

The Narrower Meaning in the VARK Model

Much of the popular use of the term comes from the VARK model, developed by New Zealand educator Neil Fleming and described with Colleen Mills in 1992. VARK stands for Visual, Aural, Read/write, and Kinesthetic, four preferences for taking in and giving out information. VARK Learn, the organization behind the questionnaire, presents it as a tool for reflection about learning preferences, not as a measure of intelligence and not as a prediction of success.

VARK’s definition of Visual is narrower than everyday use, and the difference is worth knowing. On VARK Learn’s own modalities page, the Visual preference covers information shown as maps, diagrams, charts, graphs, flowcharts, and symbols that stand for what could have been said in words. It explicitly does not include still pictures or photographs of reality, movies, videos, or PowerPoint slides. A photograph of a cell is therefore not Visual in VARK’s strict sense, while a labeled diagram of that cell, with arrows showing what moves where, is.

That narrow definition explains some confusion. A student who loves videos may be described in everyday language as a visual learner, but in VARK terms the video might belong mainly to another preference, or to several at once, depending on whether the student is listening, reading captions, watching a demonstration, or studying a diagram within the video. The everyday label and the VARK label overlap, but they are not identical.

VARK Learn also stresses that most people are multimodal. Its modalities page states that around two-thirds of people have a multimodal preference, meaning they usually like to use more than one VARK modality. A result that shows a Visual preference alongside a Read/write preference is therefore common, not contradictory. It simply means the person reports liking both diagrams and written words, often for different tasks.

Common Signs Often Associated With Visual Learning

No checklist can identify a visual learner with certainty, and none should be used to sort students into fixed groups. The signs below are commonly reported preferences. They are useful as prompts for trying a study method, not as a test result.

• Preferring to see the structure first. A learner may want an overview, a contents page, a map of the topic, or a diagram of how parts fit together before working through detail.
• Turning words into pictures. Notes may become boxes, arrows, timelines, and tables rather than long paragraphs. A process becomes a flowchart. A comparison becomes a two column table.
• Remembering where things were. A student may recall that a fact was at the top of a page, in a blue box, or on the left side of a diagram. That kind of spatial memory can be a genuine aid to recall, although it is not proof of a learning style.
• Liking color and layout as organizers. Color coding may mark categories, stages, or levels of importance. Layout may separate examples from definitions, or causes from effects.
• Preferring written instructions. Written steps can be reread, paused over, and checked off, while spoken steps disappear as soon as they are said. That preference overlaps with the Read/write preference in VARK, which is why many visual learners also like lists and notes.
• Sketching to think. Doodling a diagram, drawing a quick model, or redrawing a figure from memory may help a learner work out what they do and do not understand. The gaps in the sketch often reveal the gaps in understanding.

If only one or two of these sound familiar, that does not disprove anything. Preferences vary by subject, by task, and by day. A student may sketch happily in biology, where diagrams carry much of the meaning, and prefer discussion in history, where argument and interpretation matter more. That variation is normal.

Visual Learning Compared With Other Preferences

The table below uses the VARK categories. It describes preferences, not separate kinds of people, and most learners will recognize themselves in more than one row.

Two common misunderstandings follow from this table. First, the rows are not boxes to be assigned for life. A learner can favor diagrams in one subject and discussion in another, and preferences can change with experience and teaching. Second, the table does not rank the rows. No preference is better than another, and none guarantees stronger results.

A related term, visual-spatial thinking, adds another layer of confusion. In some sources, a visual-spatial learner is described as someone who thinks in pictures and readily grasps spatial relationships, such as how shapes fit together or how a three dimensional object looks from another angle. That is a description of a way of thinking about space and images. It is not the same as VARK’s Visual preference, which is about diagrams and symbols that represent verbal ideas. The terms overlap in everyday talk, so when a source uses “visual-spatial,” it is worth checking whether it means spatial reasoning, diagram preference, or both.

What the Research Says: Preferences Are Real, Matching Is Contested

The most important evidence point in this article is also the most often skipped in popular guides. People do report learning preferences. What has not been shown, to the standard researchers require, is that teaching matched to a declared preference improves learning.

The landmark review is by Harold Pashler, Mark McDaniel, Doug Rohrer, and Robert Bjork, published in Psychological Science in the Public Interest, a journal of the Association for Psychological Science. The review asked a precise question: what experiment would actually prove the “meshing hypothesis,” the idea that instruction works best when it matches the learner’s style? The authors argued that a valid test must classify learners, assign them at random to different instructional methods, and test everyone with the same measure. Crucially, it must show a crossover pattern: visual learners doing best with visual instruction and verbal learners doing best with verbal instruction, with each group doing worse under the other method. If one method simply works best for everyone, that does not prove matching. It proves that method is better.

When the authors reviewed the literature against that standard, they found very few studies that used a suitable design. Of those that did, some contradicted the meshing hypothesis, and the few findings in line with it did not test the popular learning style schemes. The Association for Psychological Science summary of the review puts the conclusion plainly: there was no adequate evidence base to justify incorporating learning style assessments into general educational practice, and limited education resources would be better devoted to practices with a strong evidence base. The review also cautioned against overreading that result. Many versions of learning styles had simply not been tested at all, so the finding was a lack of adequate evidence for matching, not a proof that every possible version of the idea is false.

That distinction is the honest position to hold. It is fair to say: “I prefer diagrams, and diagrams help me organize this topic.” It is not fair to claim, on the basis of a preference questionnaire, that a student can only learn visually, that a school must sort students by style, or that a visual method will guarantee better grades. The research supports the first kind of statement. It does not support the second.

This is also why this article avoids two kinds of claim found in many popular guides. It gives no percentage for how many people are visual learners, because such figures vary by questionnaire, by definition, and by sample, and they are often repeated without a primary source. It also makes no claim about how much faster the brain processes images than text, because that kind of striking number is frequently quoted without a verifiable study behind it. A preference does not need an inflated statistic to be worth taking seriously.

Why Visual Tools Can Still Help, Even Without Matching

Rejecting the meshing hypothesis does not mean rejecting diagrams. A tool can be valuable because it fits the subject, not because it fits a label. Psychologists who study learning draw a related distinction: some material is inherently visual. A route, a structure, a sequence, a hierarchy, and a distribution are all easier to grasp when they are shown, because the visual layout itself carries meaning. A list of steps can be read, but a flowchart also shows where a step branches, loops back, or ends. A table of numbers can be read, but a chart also shows a trend, a gap, or an outlier at a glance.

That is the right test for any visual method: does the representation add information, or does it only decorate it? A diagram that labels parts, shows relationships, and makes structure visible adds information. A colorful copy of the same paragraph, with no new structure, adds decoration. Both may feel pleasant. Only the first changes what the learner can do with the material.

The same reasoning applies to the strongest study strategies identified in a separate review of learning techniques. In a review published in the same journal, Psychological Science in the Public Interest, John Dunlosky and colleagues evaluated ten common study techniques. They rated practice testing, meaning self-testing or taking practice tests on material to be learned, and distributed practice, meaning spreading study over time rather than massing it into one session, as the most effective of the techniques reviewed, because they helped learners of different ages and across a wide range of materials. Those findings point to a practical conclusion for visual learners: a diagram is most useful when it is used actively and repeatedly, not when it is merely looked at once.

A useful way to combine the two ideas is to make visual study active. Draw a diagram from memory, then check it against the source and correct the errors. Turn a chapter into a blank flowchart, fill it in without looking, and then fill the gaps. Space those attempts over several days rather than doing them all the night before a test. The diagram provides the structure. Retrieval and spacing provide the practice that helps the structure stick. Amberaisle’s guides to how to create a study plan and how to create a study guide cover the planning side of that routine, while its guide to how to focus while studying covers the working conditions that make repeated practice easier to sustain.

Practical Visual Study Methods That Add Structure

The methods below are organized by what they do, not by who they are supposed to suit. Try one, test it on real material, and keep it only if it helps you recall and use the material later.

Concept maps and diagrams

A concept map starts with a central idea and branches into connected ideas, with labeled links showing how they relate. “Causes,” “is an example of,” “leads to,” and “contrasts with” are more useful labels than a bare line, because the label forces a decision about the relationship. A labeled diagram works the same way for a physical structure: each part gets a name and a role, and arrows show movement, flow, or cause.

A good first attempt is deliberately rough. Sketch the structure from memory, in pencil, without worrying about neatness. Then compare it with the textbook or lecture notes, mark what is missing or wrong, and redraw the corrected version. The comparison step is where much of the learning happens, because it exposes gaps that a neat copy would hide.

Timelines, tables, and flowcharts

Some material is best shown by order, comparison, or decision. A timeline suits events, experiments, and historical change, because it forces dates and sequence into view. A comparison table suits two or more theories, systems, or cases, because it forces the same questions to be asked of each column. A flowchart suits a process with choices, such as a laboratory method, a legal procedure, or a problem solving routine, because it shows what happens at each branch.

When building any of these, keep the number of items small enough to read at a glance. A timeline with thirty events is a list in disguise. Group events into phases first, then expand one phase at a time. A table with ten columns is hard to use. Choose the three or four comparisons that actually distinguish the cases, and leave the rest in notes.

Color coding with a rule, not just a color

Color helps when it encodes meaning. One color for definitions, one for examples, one for causes, and one for exceptions is a system. Random highlighting, where everything important ends up yellow, is not. A workable rule is to decide the categories before opening the highlighter, to use no more than four colors, and to write a short key at the top of the page.

Color should also never be the only cue. A learner who relies on color alone will lose the information in black and white printing, in a photocopy, or when color vision differs. Pair color with a label, a symbol, or a position, so the meaning survives without the color. That is also good practice for anyone sharing notes or slides with others.

Flashcards that show, not just tell

A flashcard does not have to be words on both sides. One side can show an unlabeled diagram, a blank map, or a partially completed flowchart, and the other side can show the completed version. The task is then to reproduce the structure from memory, not merely to recognize a term. That turns a visual aid into a practice test, which is one of the strategies rated most effective in the Dunlosky review.

Keep cards small and specific. One card for one structure, one process, or one comparison works better than one card that tries to hold a whole chapter. Review cards over several days, retire cards that are consistently recalled, and bring back cards that keep failing. That spacing is itself part of the method, not an optional extra.

Sketching from memory and teaching from a diagram

Two active methods deserve special mention because they expose misunderstanding quickly. The first is sketching from memory: close the book, draw the diagram, and then check it. The second is teaching from a diagram: explain the diagram aloud, in your own words, as if to someone who cannot see it. If the explanation stalls at an arrow or a label, that is the point to restudy. Both methods work whether or not the learner calls themselves visual, because both require recall and explanation rather than rereading.

For writing tasks, diagrams can also serve as planning tools. A student planning an essay may map an argument as a chain of claims and evidence before writing sentences. Amberaisle’s guide to how to write an essay covers essay structure in detail, and a visual plan can feed directly into that structure, with each branch becoming a paragraph and each link becoming a transition.

How to Test Whether Visual Methods Help You

Because preferences are personal and evidence about matching is weak, the honest way to choose a method is to test it on your own material. A small, informal experiment is enough, and it avoids the trap of adopting a label and then defending it.

1. Pick one topic and one test. Choose a topic you have not yet mastered, and decide in advance how you will test yourself, for example by recalling ten key facts, labeling a diagram, or answering five short questions.
2. Study it two ways, on different material. Use a diagram based method for one half of the material and a different method, such as reading and summarizing, for the other half. Keep study time roughly equal.
3. Test after a delay. Test yourself a day or two later, not immediately after studying. Immediate recall flatters every method. Delayed recall is closer to what matters in a real test or a real task.
4. Compare and keep notes. Record which method helped, for which kind of material, and by how much. A method that helps with labeled structures may not help with dates or definitions, and that is useful information.
5. Repeat with a new topic before deciding. One result can be a fluke. Two or three small tests give a steadier picture than one questionnaire result.

This approach also protects against a common pitfall: confusing enjoyment with effectiveness. A method can feel fluent because it is pleasant, familiar, or pretty, while producing weaker recall than a method that feels harder. Retrieval practice often feels harder than rereading, precisely because it exposes gaps, yet the Dunlosky review rated it among the most effective techniques. Feeling of ease is a poor judge. Delayed test results are a better one.

If visual methods consistently help with a particular kind of material, use them for that material. If they do not, drop them without guilt. The goal is learning the subject, not loyalty to a label.

For Teachers, Parents, and Tutors

Adults who support learners often ask whether they should identify visual learners in a class and teach them separately. The research discussed above suggests a different approach: offer multiple representations to everyone, and check understanding in more than one form.

A lesson that presents a new idea as a diagram, a worked example, and a short written summary gives every student more than one way in. It does not require sorting students first, and it avoids the risk of limiting a student to one format because of a questionnaire result. It also reflects how real subjects work. A science lesson on the water cycle needs a diagram, because movement and reservoirs are spatial. A history lesson on a debate needs argument in words, because the evidence is textual. The subject, not the supposed style, should drive the choice.

When using visual material in a classroom or at home, a few practical points help:

• Label diagrams fully. An unlabeled picture invites guessing. Labels, a title, and a short caption turn an image into a teaching tool.
• Do not rely on color alone. Use labels, shapes, and position alongside color, so the meaning is clear in print and for learners with different color vision.
• Check understanding, not preference. Ask learners to label a blank diagram, explain a flowchart, or redraw a structure from memory. That checks learning. Asking whether they liked the diagram checks preference.
• Keep visual load manageable. One clear diagram per idea beats a slide crowded with images, text, and decoration. Remove anything that does not carry meaning.
• Connect visuals to words. A diagram plus a spoken or written explanation usually beats either alone, because the learner must connect the two. Asking a student to explain a diagram in words is a strong check that the connection has been made.

Research on how classroom layout affects learning points in a similar direction: the physical arrangement of a room can support attention and interaction, but it does not replace the content of teaching. Amberaisle’s article on how classroom layout affects student learning discusses that distinction, and the same caution applies here. Environment and format can support learning. Neither is a substitute for clear material, practice, and feedback.

For children, the same principles apply with simpler language. A child who enjoys drawing diagrams should be encouraged to draw them, and a child who prefers to talk through an idea should be encouraged to talk. Neither preference should be treated as a limit. Children change rapidly, and a preference reported at age nine may look different at age twelve. What matters most is variety, practice, and feedback, not a label fixed early.

Visual Learning in Adult Life and Work

Visual preferences do not end at school. In workplaces, diagrams appear as process maps, organizational charts, project timelines, and data dashboards. A new employee may understand a workflow faster from a flowchart than from a manual, not because of a learning style, but because the flowchart shows order, responsibility, and handoffs in one view. A manager presenting results may use a chart because a trend is easier to see than to hear as a list of numbers.

The same tests apply at work as at school. A visual should add structure, not decoration. A slide packed with charts that no one can read from the back of a room is decoration. A single chart with a clear title, labeled axes, and one message is a tool. Presentations also benefit from the classroom lesson above: pair the visual with a spoken explanation, and check understanding by asking what decision the visual supports, not only whether it looked clear.

Language learning offers a concrete example. A learner studying vocabulary may pair a word with an image, a map, or a labeled scene, and that pairing can aid memory for concrete nouns. For grammar, a table showing patterns, or a timeline showing verb tenses, may help more than a picture. Amberaisle’s guide to how to learn a language covers language study more broadly, and its point applies here too: the method should follow the material, whether that material is words, patterns, or pronunciation.

Common Misunderstandings

“Visual learners cannot learn from listening.” No. A preference for diagrams does not remove the ability to learn from speech, reading, or practice. Most learners use all of these, in different proportions for different tasks.

“Visual learners are artistic.” Not necessarily. Liking diagrams is not the same as drawing skill, and a useful study diagram does not need to be beautiful. Boxes, arrows, and labels are enough. Artistic talent is a separate matter.

“A visual learner needs pictures in every lesson.” No. What helps is a well chosen representation for material that benefits from it. Forcing a picture onto material that is essentially verbal, such as a legal argument or a poem, may add little, and may distract from the words themselves.

“A learning style result explains poor results.” A preference result does not explain a grade, and it should not be used as an excuse or a limit. Poor results usually have many possible causes, including gaps in prior knowledge, unclear material, too little practice, or too little time. Those causes are more useful to investigate than a label, because they point to actions that can change.

“Visual learning is a medical or psychological diagnosis.” It is not. It is a description of a reported preference. A persistent difficulty with reading, with seeing the board, or with understanding lessons is a different matter, and it deserves a conversation with a teacher, a school support team, or, for a possible vision concern, an eye care professional. That conversation is about support for a specific difficulty, not about confirming a learning style.

“If a method feels easy, it must be working.” Not always. Rereading notes and copying diagrams can feel smooth while producing weak recall. Methods that require recall, such as drawing from memory or self-testing with blank diagrams, often feel harder and work better. Delayed self-testing, not immediate ease, is the better check.

When Visual Methods Are the Wrong Tool

Visual methods have limits, and recognizing them is part of using them well. A diagram can oversimplify a complex argument, hiding disagreement or uncertainty behind neat boxes. A timeline can imply a simple cause and effect where historians disagree. A chart can mislead if axes are truncated, categories are cherry picked, or a trend is drawn from too few points. In each case, the visual needs the same critical reading as a paragraph: what is shown, what is left out, and what would change the picture?

Some material also resists visualization. Tone in a poem, nuance in a legal definition, and the sound of a language are hard to capture in a diagram without losing what matters. In those cases, listening, reading aloud, or close reading may be the better primary method, with a visual used only as a secondary organizer, such as a table of themes or a timeline of a text’s structure.

Finally, visual study can become a trap when it turns into production rather than learning. Spending an hour making a beautiful set of notes, with perfect colors and lettering, can feel productive while adding little recall. A useful rule is to timebox the making stage, then spend at least as long using the visual: recalling from it, testing with it, and correcting it. If the notes are never used for recall, they were decoration, however attractive.

Frequently Asked Questions

What is a visual learner in simple terms?

A visual learner is a person who tends to prefer learning through diagrams, charts, maps, timelines, and other visual representations, rather than through spoken explanation alone. The term describes a preference, not a fixed type, a diagnosis, or a measure of intelligence.

Is a visual learner a real scientific category?

Preferences for visual material are real, in the sense that people report them. The stronger claim, that teaching matched to a learning style improves learning, has not been supported by adequate evidence. The Pashler review for the Association for Psychological Science found no adequate evidence base to justify incorporating learning style assessments into general educational practice.

What is the difference between a visual learner and a VARK Visual preference?

In everyday language, a visual learner is anyone who prefers to learn by seeing, including through photographs and videos. In VARK’s stricter definition, the Visual preference covers maps, diagrams, charts, graphs, flowcharts, and symbols that represent what could have been said in words, and it explicitly excludes photographs, movies, videos, and PowerPoint slides. The everyday term is broader than the VARK term.

How can I tell if I am a visual learner?

There is no definitive test. You can notice whether you often prefer diagrams, written instructions, and organized layouts, and whether sketching or mapping helps you understand a topic. A more reliable check is the small experiment described above: try a diagram based method and another method on comparable material, test yourself after a delay, and compare the results. Treat any questionnaire result as a prompt to experiment, not as a final verdict.

What are the best study methods for visual learners?

Methods that add structure tend to help most: concept maps with labeled links, timelines, comparison tables, flowcharts, and flashcards that ask you to reproduce a diagram from memory. Use color with a clear rule and a key, never as the only cue. Combine visual work with retrieval practice and spaced review, by drawing from memory and retesting over several days, rather than only looking at notes once.

Do visual learners learn better from videos?

Not necessarily, and not by definition. A video may help if it contains a clear diagram, a demonstration, or a worked example that fits the material. A video that is mainly a person talking, with decorative images, may help no more than listening. In VARK terms, video is not automatically Visual. Judge a video by what it shows and what you can recall from it afterwards, not by its format.

Can a person be both a visual and an auditory learner?

Yes. VARK Learn reports that around two-thirds of people have a multimodal preference, meaning they like to use more than one modality. A person may prefer diagrams for science, discussion for history, and written lists for planning, without any contradiction.

Should schools sort students by learning style?

The evidence reviewed here does not support sorting students by style or teaching each group only in its preferred format. A better approach is to offer multiple representations to everyone, choose the representation that fits the subject, and check understanding through recall and explanation. That gives visual tools a proper place without turning a preference into a placement.

Does being a visual learner mean I am bad at listening or reading?

No. Preference is not inability. Many people who prefer diagrams also read and listen well, and skills in listening and reading can be built with practice. If listening or reading is persistently difficult, that is worth discussing with a teacher or school support team as a specific difficulty, not as a consequence of a learning style label.

How can parents help a child who prefers visual learning?

Offer diagrams, timelines, and organized notes as options, not as the only route. Encourage the child to draw a structure from memory and explain it aloud, to use color with labels, and to revisit material over several days. Keep the focus on what the child can recall and explain, rather than on how pretty the notes look, and keep other methods in the mix, including discussion and reading. For younger learners, Amberaisle’s best study tips for kids offers age appropriate routines that sit well alongside visual methods.

Sources & references

• Association for Psychological Science, "Learning Styles Debunked: There Is No Evidence Supporting Auditory and Visual Learning, Psychologists Say" (16 December 2009), summarizing Pashler, McDaniel, Rohrer, and Bjork, "Learning Styles: Concepts and Evidence," Psychological Science in the Public Interest, volume 9, number 3 (2008). Key points used: the meshing hypothesis requires a crossover pattern in a randomized test; very few studies met that design standard; some contradicted the hypothesis; and there was no adequate evidence base to justify incorporating learning style assessments into general educational practice, with the caution that many versions had simply not been tested.
• VARK Learn, "VARK Basics: An Introduction for Learners." Key points used: VARK is a questionnaire for reflecting on learning preferences; it does not measure intelligence and does not predict success; most people are multimodal.
• VARK Learn, "The VARK Modalities: Visual, Aural, Read/write and Kinesthetic." Key points used: the Visual preference covers maps, diagrams, charts, graphs, flowcharts, and symbols representing what could have been said in words, and does not include still pictures or photographs of reality, movies, videos, or PowerPoint; around two-thirds of people have a multimodal preference.
• Fleming, N. D., and Mills, C. (1992), "Not Another Inventory, Rather a Catalyst for Reflection," To Improve the Academy, volume 11, page 137, as cited by VARK Learn as the article that launched VARK.
• Dunlosky, J., Rawson, K. A., Marsh, E. J., Nathan, M. J., and Willingham, D. T. (2013), "Improving Students' Learning With Effective Learning Techniques: Promising Directions From Cognitive and Educational Psychology," Psychological Science in the Public Interest, volume 14, number 1, pages 4 to 58, summarized by Dunlosky in "Strengthening the Student Toolbox," American Educator, Fall 2013. Key points used: practice testing and distributed practice were rated the most effective of the ten techniques reviewed.
• SERP record: literal search of "what is a visual learner" on 4 Nov 2026 returned competing explainers from Child1st, Heuristi.ca, GreatSchools, BJU Press, Zippia, Yolanda White Johnson, Memorise, Learning Style Quiz, and Potomac, all organized around characteristics of visual learners, VARK categories, and visual study tips, with several repeating unverified percentage and brain processing claims. This article differentiates itself by using VARK Learn's own narrower definition of Visual, by presenting preferences as preferences rather than fixed types, and by giving the Pashler review's contested evidence position a full section rather than a passing note.