Monday, February 16, 2026

Missed Opportunities and Lost Discoveries 

Many years ago, during a family trip to Colorado, a friend told me a story that provides an inside look at how scientists work. I was just beginning serious research for my first book and we were discussing creativity and the process of discovery. He was a well-known cancer researcher and taught at the University of Colorado in Boulder. He told me he would sometimes prefer to forget this story. I asked if it was had ever been written down anywhere. He said no. He and all his associates found it too upsetting to recall or record – but he told me it was alright for me to tell the story. 

Years ago, one of his friends was a young researcher in a biochemistry laboratory, and was performing a procedure intended to destroy DNA, the molecular blueprint for self-replication carried in all living cells. She was annoyed, however, and not being able to make the procedure work as intended. Each time she measured the results of her work she came up with more DNA than she started with. The researcher tried again and again. But each time she was disappointed to discover that she had more DNA rather than less once again. Her coworkers were sympathetic, and tried to help her. But no solution to the problem could be found. She eventually dropped the project and went on to other tasks. 

Some years later, another scientist in a different laboratory successfully developed a new method to create DNA, making many copies – and he subsequently received a Nobel prize for his discovery. The young researcher and her former colleagues are still asking themselves how it is that they did not recognize what was really going on when her project repeatedly failed. The story of the second scientist is now well known in scientific circles. This discover was Kary B. Mullis, who shared the 1993 Nobel Prize in Chemistry with another scientist, Michael Smith. Mullet received the prize for his development of the Polymerase Chain Reaction (PCR) that makes it possible to rapidly make thousands or millions of copies of specific DNA sequences. 

The improvements provided by Mullis made the PCR technique of central importance in molecular biology and biochemistry. According to the Nobel Prize presentation at the Royal Swedish Academy of Sciences: “Using this method it is possible to amplify and isolate in a test tube a specific DNA a segment within a background of a complex gene pool. In this repetitive process the number of copies the specific DNA segment doubles during each cycle. And a few hours it is possible to achieve more than 20 cycles, which produces over 1 million copies.” 

Of course, the story is so upsetting because she had the Discovery right there in front of her, but she was so focused on her seemingly failed project that she could not see the value of her experiment’s results. Such stories teach us. Sometimes a gift is seen only as a problem, something that would be quickly wished away had we the power. Sometimes the most important thing is to be able to recognize the gift for what it is, even though it is not requested or desired. For this to be possible, it is helpful (in spite of one’s training) not to be focused on the narrow interests of the moment – no matter how serious the task, no matter how large the grant, no matter how urgent the deadline. One has to be open to new possibilities, to looking at things in a different way, to being able to see what you have been given, even when it is not what you asked for. 

The role of chance or for fortuitous accident is one of several themes that occur repeatedly in the literature of creativity, especially creativity in the sciences. I do not assume that all creativity is necessarily associated with some form of learning disability or learning difference. However, I do believe that a number of traits associated with dyslexia, other learning differences, and especially high visual-spatial talents may tend to predispose some individuals to greater creativity than might exist otherwise. 

Being able to do what others want you to do, in the way they want you to do it, is seductive. If you can, you will. But if you cannot, you will have to find another way. It is a form of accidental self-selection. If it is possible to do it the same way, successfully, often the new way will not be tried. Thus, if a truly original method is needed, the conventionally successful student or researcher maybe the last one to find it. Sometimes only among those who have repeatedly failed is there a high lately likelihood of success. 

(T.G. West, Seeing What Others Cannot See: The Hidden Advantages of Visual Thinkers and Differently Wired Brains, Prometheus Books, 2017, pages 69-71.)

Friday, January 2, 2026

 Thought some of you might be interested in a talk I was asked to give years ago in Amsterdam shortly after my first book was published. Old material -- which seems still very relevant to our situation today -- perhaps much more so as AI has begun to affect all aspects of work and education. Long predicted, now here. -- Tom

Medieval Clerk to Renaissance Thinker:
Design, Visualization, and Technological Change
THOMAS G. WEST
This paper is based on the presentation given at the “Doors of Perception” Conference, 1993, Netherlands Design Institute, Amsterdam, and has been extensively revised. The selected references listing includes several related readings of interest which have not been directly cited in the text. - Thomas West.
"Up till now, making things has involved the manufacturing industry deciding what to make, making it cheaply by making a lot of it and presenting it to the customer. From now on, though, the race will be how quickly you can make what the customer, the user, wants. This is a completely different approach. In the past, manufacturers have invested heavily in manufacturing. Now, the investment has to be in design."
--Ryouzou Yoshikawa, General Manager for Software
Development, NKK Electronics Division. From printed script provided with the video Visualization Software: State of the Art, written and directed by Laurin Herr and Judson Rosebush, Pacific Interface, Inc./ ACM SIGGRAPH, 1992.
"I think that the visual channel is really the key to unlocking access to parts of our brain we don't even know exist, to triggering unexpected connections. It's probably the best for that simply because of the fact that the largest proportion of the brain is dedicated to that... It's an old adage that the picture is worth a thousand words, and a moving picture is worth a million words."
-Abraham Peled, Vice President of Systems, Director of Computer Sciences, IBM T.J.Watson Research Center.Visualization Software.
"With further technological development, we may see striking new opportunities for these creative, visual-thinking persons... Perhaps in the future we might see the solution of difficult problems in statistics, molecular biology, materials development, or higher mathematics coming from people who are graphic artists, sculptors, craftsmen, film makers, or designers of animated computer graphics. Different kinds of problems and different kinds of tools may require different talents and favor different kinds of brains." Preface, In the Mind's Eye
Different Tools, Different Talents
As we enter the era of widespread interactive computing, data visualization, "information superhighways," computer aided design and computer aided manufacturing, it is apparent that designers, artists, architects and other creative professionals will need to be more aware of the deep implications of these developments, promising to have profound effects on all aspects of education and work.
Many view these new developments as alien and threatening. However, some may be surprised to discover that this new era may be less strange than might be expected. With this new generation, the old computing of centralized systems, words, numbers and obscure commands falls behind. The new computing of personal systems, graphic interfaces and rich, colorful, moving, complex images takes its place. What was once awkward and a chore, now becomes a device that comes more and more naturally to hand. What was once remote becomes more accessible and more useful as an everyday tool.
In another even more important aspect, these new developments may also be expected to lead us to puzzling and paradoxical revelations about how our minds actually work - indeed, perhaps affecting even our fundamental concepts of talent and intelligence.
Some psychologists argue that visual-spatial abilities should be seen as a special form of intelligence, on a par with verbal or logical-mathematical forms of intelligence. But these abilities do not always come together in equal measure.
In recent years, neurological research has shown that in some cases the early development of the brain may produce extraordinary visual and spatial talents at the same time that verbal difficulties are produced. Accordingly, those who have superior talent with visual and spatial materials (manipulating images mentally - rotating, molding, constructing, transforming, recalling, dissociating, recombining - visualizing the unseen) often also have varying degrees of difficulty with a range of verbal tasks (reading, writing, speaking, extemporaneous composition, spelling, word retrieval and memory).
However, in the world at large, with a few notable exceptions, verbal skills are often seen as the only skills that are really important. Some instructors may think they can assess ability and intelligence based only on a few moments of fluent or inarticulate conversation. Indeed, within existing educational systems, in most countries and at all levels, verbal skills are usually the main criterion for determining academic achievement and professional advancement. And this has been true in many fields for hundreds of years. But all of this is beginning to change.
A Return to Visualization
The further ahead we progress in the newer computer technologies, surprisingly, the more we may seem inclined to revert to visual approaches and perspectives largely abandoned long ago.
Indeed, for decades, many scientists, mathematicians and other professionals had tried to turn away from visual approaches as much as possible. There did not seem to be sufficient precision and logical rigor. Words, symbol manipulation and numbers had high status. Pictures were for children. Now these visual approaches are being returned to central positions in many fields once again.
Many researchers are now focusing on scientific data visualization - arguing that only graphically-oriented technologies and modes of analysis are capable of dealing with today's complex problems and massive volumes of data.
But there is yet another form of visualization - one that deals (whatever the field) with the simultaneous consideration of many conflicting factors - whether we are talking about the design of a car or the design of a building - whether we are considering the design of a political solution or the design of a grand strategic plan.
The significance of visualization talents is being realized by some professions, but not in others. In the United States for example, there is evidence that engineers, physicians and surgeons are gradually becoming aware of the pattern of visual talents coupled with verbal difficulties and it is being discussed in books and professional journals. In contrast, it has been observed that this pattern is also common among U.S. architects - but it is almost never acknowledged or discussed within the profession, formally or informally (Frey, "Schools Miss Out On Dyslexic Engineers," IEEE Spectum, 1990; Guyer, "Dyslexic Doctors," Southern Medical Journal, 1988).
There are some conspicuous exceptions, however. During the building boom of a few years ago, at least one architectural firm made a point of hiring dyslexic young architects whenever possible. The owner explained that these young architects may not be trusted to add up a column of figures without error or report accurately on the outcome of a planning and zoning meeting. Yet, he had found they often have an uncommonly superior ability to find the optimal solution to the complex overall design problem that defines a new building, successfully integrating the many complex systems and required specifications in a complementary rather than antagonistic way.
In another example, some researchers are finding that returning to visual approaches through the use of modern graphic computer workstations has allowed them to understand chemical processes (such as the thermodynamic behavior of pure fluids and mixtures) in ways that were impossible using traditional nonvisual methods. Accordingly, they have learned that they could move ahead by combining the newest technologies with old and previously unfashionable visual approaches (Jolls and Coy, "Art of Thermodynamics," IRIS Universe, 1990).
As the use of graphic computing spreads and the benefits become more obvious, we might expect a greater appreciation of visual capabilities. As we move beyond "pretty pictures" to the visualization of complex systems and processes (whether in science, design or business), we may find that we will gain in ways that we cannot yet easily predict. But we should anticipate that these gains will be as different as the analytical linearity of words and numbers is different from the complex simultaneous wholeness of pictures.
For some 400 or 500 years our schools and universities have been developing essentially the skills of a Medieval clerk - reading, writing, counting and memorizing texts. Today, we are on the verge of a really new era when we will be required to develop, whether we want to or not, a very different set of visually-based talents and skills - skills like those of a Renaissance visual thinker such as Leonardo da Vinci rather than those of the clerk or scholar or schoolman of the Middle Ages.
In the not too distant future, machines will be the best clerks. Accordingly, we must learn to develop distinctly human talents for a new level of sophistication in design - whether for designing well-crafted products or for designing elegant and effective solutions for complex problems - keeping in mind that these distinctly human talents are likely to involve the insightful and broadly integrative capacities associated with visual-spatial modes of thought.
Albert Einstein
A pattern of high visual talents mixed with verbal weaknesses is evident on the lives of a number of extraordinarily creative thinkers. Albert Einstein, for example, was a strong visual thinker and had notable difficulties in his early schooling. His school experience showed areas of great strength combined with areas of substantial weakness. Consequently, his school record at times seemed erratic and self-contradictory. This long-term pattern is evident in a letter Einstein's father wrote to one of his teachers as he was completing his secondary education before university: "with Albert I got used a long time ago to finding not-so-good grades along with very good ones.
Much of Einstein's most original work had involved "thought experiments," employing his highly visual imagination. As he himself said, words or language, "as they are written or spoken, do not seem to play any role in my mechanism of thought." Rather, the "psychical entities" which served as elements in his productive thought were not words at all, but rather "certain signs and more or less clear images" that could be "'voluntarily' reproduced and combined."
Although some find this mixed pattern to be difficult to believe and to understand, there are those who see no inherent incompatibility between notable verbal weaknesses and great visual strengths. For example, Gerald Holton, a physicist and expert on Einstein, has observed that "an apparent defect in a particular person may merely indicate an imbalance of our normal expectations." In the "exceptional person," an area of special difficulty "should alert us to look for a proficiency of a different kind."
Consequently, Holton observes that "the late use of language in childhood" or "difficulty in learning foreign languages" may show a "polarization or displacement in some of the skill from the verbal to another area." In the case of Einstein, "that other, enhanced area is without a doubt... an extraordinary kind of visual imagery that penetrates his very thought processes."
In school, one of the more important traits that caused him great difficulty was his poor memory, especially for words and texts. In the traditional school systems of Europe at that time, a great deal of recitation and memorization was expected. And, of course, it was mainly based upon these skills that it was decided whether you were a good student or not. Einstein was not good at recitation, but he did very well with conceptual or philosophic thinking. Thus, in school he was beyond the curriculum in mathematics, physics and philosophy.
Einstein's sister Maja comments about his late speech and his slow answers but deep understanding in mathematics. She also refers to his frequent calculation errors even though he had a clear understanding of the main ideas involved. In secondary school, he dropped out of school in Germany to follow his parents when they moved to Italy. His reason was that because of his poor memory, he preferred to endure all kinds of punishments rather than to have to learn to "gabble by rote." After he failed his first set of university entrance examinations, Einstein went to a new and unconventional school - one that was based one the highly visually-oriented ideas of a Swiss educational reformer. It was at this school that Einstein's abilities began to blossom and the great theories of a few years later began to take their initial shape.
While at university, Einstein most highly respected the work of two British scientists who were unusually visual in their orientation. These two scientists are now acknowledged to be giants of 19th century physical science - Michael Faraday and James Clerk Maxwell.
Michael Faraday
Michael Faraday did his most important work at the Royal Institute in London during the early part of the 19th century. A blacksmith's son, he was entirely self-educated. He was known for his extremely visual scientific conceptions. He started with chemistry but moved on to physics and the study of electricity, light and magnetism. He thought of himself as a "philosopher" and hated being called a "chemist" or a "physicist" - because he hated the limited perspective of the specialist approach.
Among many original discoveries, he developed the first electric motor. But most important, he developed utterly original ideas about the fundamental nature of energy and matter - the electromagnetic "field" and "lines of force." These ideas were later translated into proper mathematical form by Maxwell and later still became a powerful influence on the young Einstein. Remarkably, these ideas have proved to be valid and useful since they were first developed in the middle of the last century. With each new scientific revolution since that time, many old theories and concepts have become rapidly outdated. But on the whole, those of Faraday and Maxwell just keep looking better and better.
Along with Faraday's visual proficiencies there is some evidence of direct or indirect verbal difficulties. He did observe that he "could not imagine much progress by reading only." Rather, he said he was "never able to make a fact [his] own without seeing it." Also, he may have had a slight speech problem in his youth, was unusually erratic in his spelling and punctuation and had an extremely unreliable memory which forced him to keep detailed journals and diaries of nearly everything he did.
He explained that as a youth he was not precocious or a deep thinker. Rather, he described himself as a "lively imaginative person," being able to believe in the "Arabian Nights" as easily as the "Encyclopedia." However, he found a refuge from his excessively lively imagination by conducting laboratory experiments. He found he could trust an experiment to check the truth of his ideas as well as to educate and inform his intuition. In the experiment, he said, he "had got hold of an anchor" and he "clung fast to it." However, his intuition seemed to be among his most valued talents, recognized by many. Faraday was seen by later scientists as being like Einstein in that he "smells the truth." They thought he had an "unfailing intuition." They wondered at "his inconceivable instinct."
James Clerk Maxwell
James Clerk Maxwell was from Scotland and was trained in science and mathematics at Cambridge University. He was conventionally brilliant and got top exam results. But he was the sort of person who was able to deal with two different worlds in an extraordinary way. He knew the world of conventional math and science, but he was also intensely visual in his work (as was observed by many) and was able to quickly see the power of Faraday's original and highly visual ideas. He converted Faraday's ideas into mathematics for what are now known as "Maxwell's equations." But as Maxwell often repeated, his mathematics were based on ideas that came first from Faraday - ideas that were vastly different from the other scientists and mathematicians of the day.
The pattern of visual talents mixed with verbal difficulties is clearly apparent in Maxwell's life. Maxwell had severe, life-long speech problems. He was a stutterer and had continuous career difficulties as a result - although he is thought to be the most brilliant physicist of the nineteenth century. In fact, the Nobel prize-winning American physicist, Richard Feynman, said that "from the long view of the history of mankind - seen from, say, ten thousand years from now - there can be little doubt that the most significant event of the 19th century will be judged as Maxwell's discovery of the laws of electrodynamics. The American Civil War," Feynman said, "will pale into provincial insignificance in comparison with this important scientific event of the same decade."
While Maxwell was known to be an especially clear writer, he had remarkable difficulty answering unexpected questions quickly on demand. If Maxwell were asked such a question, he would not only stutter, but the would also stumble excessively, making what some of his friends would call "chaotic statements." However, when he had a day or so to respond to the question, he would then provide answers that were clear, thoughtful and unusually perceptive.
It is easy to show that Maxwell was a strong visual thinker - there are many references in the biographies and letters as well as the commentaries of historians of science. He could easily understand Faraday's highly visual ideas much better than others, presumably because his visualization abilities were as exceptional as Faraday's were. He was familiar with the mathematics required - as Faraday could not be - and was able to translate the conceptual clarity of Faraday's theories into the language of mathematics. He much preferred Faraday's conceptions to those of the professional mathematicians of his day. Indeed, he felt that following Faraday's lead produced a conceptual clarity and simplicity impossible through the other more acceptable approaches of the time.
Maxwell's visual orientation was evident in many aspects of his work. In mathematics and physical science, his starting point was often geometry. He used mechanical analogies and resorted to diagrams and pictures wherever possible. Much of his work involved the interplay of force and substance in a largely visual-spatial arena. And, finally, one historian of science writing of Maxwell was puzzled that although the family seemed to be a uniformly practical group, a succession of artists would appear in Maxwell's family, generation after generation.
Leonardo da Vinci
For the pattern of visual gifts with verbal difficulties in the life of Leonardo da Vinci there is abundant evidence. His visual talents are everywhere obvious. But evidence of his verbal difficulties is comparatively recent. Studies have been conducted by an Italian neurologist and others in the last few years which indicate that the journals and manuscripts of Leonardo show distinctive signs of what is called "surface dysgraphia."
In his spelling, there is evidence that he used the phonological rather than lexical route. Although Italian (whether Renaissance or modern) is phonetic and highly regular in its spelling, da Vinci still made many errors. Several scholars observed that his spellings were "by ear" or they were "bizarre" or "inconsistent." His writing was characterized by consonant doubling, letter substitutions, additions, blending and word splitting. He made unusual kinds of errors when he was clearly copying material from another text. He made homophonic errors in his letters which were not corrected.
Leonardo was evidently aware of the nature of his difficulties, however. In one place he observed: "They will say that, being without letters, I cannot say properly what I want to treat of..." In another passage he cautioned that "You should prefer a good scientist without literary abilities than a literate without scientific skills."
He was ambidextrous as a young man, but eventually shifted to and remained with left-handed writing and drawing. Of course, he is well known for his use of mirror image writing. But it is not so well known that much of his drawing and painting seems to have been mirror image as well. For example, one author pointed out that a familiar village skyline that Leonardo sketched would not be recognized by a modern observer familiar with the village until it is realized that the entire image is reversed left to right.
He was very strong, of course, in the visual-spatial area. He was not only a painter and sculptor, but used sketching and drawing as the main vehicle for his scientific investigations and innovative engineering designs. There is ample evidence of his use of mental rotation in design and when making drawings of three dimensional objects. For example, in one elegant and long-standing design, he rotated a triangular architectural arch down flat into a canal to form the common canal lock gate that is still standard today, some 500 years after his original conception.
Designing On the Right Side of Change
Thus, we are arguing that, in the not too distant future, creative visual thinkers (perhaps some with some verbal difficulties) might very well find themselves far better adapted to certain basic and pervasive changes.
These visual thinkers may have excelled in art, architecture or design although they had difficulty with memorizing texts and formulas or with learning the rule-based operations of lower mathematics or a foreign language. However, with future changes - as computer visualization techniques are increasingly employed to design and to analyze vast and complex systems - they may very well find themselves far better suited to seeing new patterns and more elegant design solutions.
These individuals may have had difficulty with learning from books or lectures, but with future technological changes they may very well find themselves far better adapted to learning from simulations of reality - as education and testing programs, in many fields, begin to emphasize interactive computer simulation of reality - over the verbal description of reality traditionally provided in books and lectures in the past.
As the training and testing of architects or physicians and other professionals becomes more like that of airline pilots than university scholars, combinations of desirable traits and skills may begin to change in subtle but important ways. There is already preliminary evidence, as computerized professional testing gradually begins to approximate real situations, that a few of those with high traditional academic skills may show unexpected areas of weakness when they are required to integrate and apply their knowledge in a realistic simulation.
Under these new circumstances, those who learn much better from direct visual, spatial or even kinesthetic experience (or its simulated equivalent) than from words or books may come to perform much better, on the whole, than those with high traditional academic skills alone.
They may have had difficulty with the "easy" materials and skills, but the "hard," advanced materials and applied skills may come to draw increasingly on just those areas where these individuals often have had their greatest strengths.
And, as an essential element in an ironic pattern, for these people, it often may be far easier to create new knowledge than to learn and retain old knowledge - because, for these people, it is sometimes far easier to learn firsthand from experimenting and visualizing than it is to learn secondhand from lectures and books.
Selected References
Brown, D., H. Porta and J. Uhl, 1991. "Calculus and Mathematica: A Laboratory Course for Learning by Doing," The Laboratory Approach to Teaching Calculus, L. Carl Leinbach, et al, eds., MAA Notes, no. 20. Washington, D.C.: The Mathematical Association of America.
Churchill, Winston S., 1932. "Painting As A Pastime," in Amid These Storms: Thoughts and Adventures. London: Butterfield.
Davis, W., H. Porta and J. Uhl, 1994. Calculus&Mathematica. Courseware, including software and four texts. Reading, Mass.: Addison-Wesley.
Ferguson, Eugene S., 1992. Engineering and the Mind's Eye. Cambridge, Mass.: MIT Press.
Frey, Walter, 1990. "Schools Miss Out On Dyslexic Engineers," IEEE Spectrum, December 1990.
Galaburda, Albert M. (ed.), 1993. Dyslexia and Development: Neurobiological Aspects of Extra-Ordinary Brains. Cambridge, Mass.: Harvard University Press.
Gardner, Howard, 1983.JFrames of Mind: The Theory of Multiple Intelligences. New York: Basic Books.
Geschwind, N., & Behan, P., 1982. "Left-Handedness: Association with Immune Disease, Migraine, and Developmental Learning Disorder," in Proceedings of the National Academy of Sciences, vol. 79, pp. 5097-5100.
Geschwind, N., 1984. "The Brain of a Learning-Disabled Individual," in Annals of Dyslexia, vol. 34, pp. 319-327.
Geschwind, Norman, and Albert M. Galaburda, 1987. Cerebral Laterialization: Biological Mechanisms, Associations and Pathology, Cambridge, Mass.: MIT Press.
Gleick, James, 1987. Chaos: Making A New Science. New York: Viking. Guyer, Barbara, 1988. "Dyslexic Doctors: A Resource in Need of Discovery." Southern Medical Journal, Vol. 81, pp. 1151-1154.
Guyer, Barbara, 1994. The Great Pretenders. Unpublished manuscript.
Herr, Laurin, et al, 1989. Volume Visualization: State of the Art.. A special issue of the ACM SIGGRAPH Video Review, Issue 44. [Video]
Kaufmann, William J, and Larry L. Smarr, 1993. Supercomputing and the Transformation of Science. New York: The Scientific American Library.
Maxwell, James Clerk, 1891 (1954). A Treatise on Electricity and Magnetism. Volume One, unabridged. NewJYork: Dover Publications, 1954.
Miles, T.R., 1993. Dyslexia: The Pattern of Difficulties, Second Edition, Whurr Publishers, London.
O'Connell, Kenneth R., Vincent Argiro, John Andrew Berton, Jr., Craig Hickman and Thomas G. West, 1993. "Visual Thinkers in an Age of Computer Visualization," in Computer Graphics, the Proceedings of the Annual Conference of ACM SIGGRAPH, August 1993, pp. 379-380.
Mark, Kyungmee, 1993. A Comparative Study of the Traditional Calculus Course vs. the Calculus & Mathematica Course. Unpublished Ph.D. thesis, Graduate School of Education, University of Illinois at Urbana-Champaign.
Pearson, E.S., 1966. "Some Aspects of the Geometry of Statistics: The Use of Visual Presentation in Understanding the Theory and Application of Mathematical Statistics," The Selected Papers of E.S. Pearson. Los Angeles, CA: University of California Press.
Satori, Giuseppe, 1987. "Leonardo Da Vinci, Omo Sanza Lettere: A Case of Surface Dysgraphia?" In Cognitive Neuropsychology, vol. 4, no. 1, pp. 1-10
Steen, Lynn Arthur, 1988. "The Science of Patterns," Science, vol. 240, pp. 611-616.
Weiner, Norbert, 1948 (1961). Cybernetics: Or Control and Communication in the Animal and the Machine. Cambridge, Mass.: MIT Press.
West, Thomas G., 1991. In the Mind's Eye: Visual Thinkers, Gifted People with Learning Difficulties, Computer Images, and the Ironies of Creativity. Buffalo, N.Y.: Prometheus Books.
West, Thomas G., 1992. "A Future of Reversals - Dyslexic Talents in a World of Computer Visualization," Annals of Dyslexia.
West, Thomas G., 1992. "A Return to Visual Thinking," Computer Graphics World, November.
West, Thomas G., 1992. "Visual Thinkers, Mental Models and Computer Visualization," Interactive Learning Through Visualization - The Impact of Computer Graphics in Education. S. Cunningham and R. Hubbold, eds. Heidelberg: Springer-Verlag.
West, Thomas G., 1994. "A Return to Visual Thinking," Conference Proceedings of "Science and Scientific Computing: Visions of a Creative Symbiosis." Tenth Annual Symposium of Computer Users within the Max Planck Gesellschaft, Göttingen, Germany, November 18 and 19, 1993. P. Wittenberg and Th. Plesser, eds. In Press. Paper translated into German for spring 1994 publication.
West, Thomas G., 1994. "Advanced Interaction: A Return to Mental Models and Learning by Doing," Computers & Graphics, Special Issue on Advanced Interaction. Klaus Boehm, et al, eds. A publication of the Eurographics Association. In Press. Scheduled for spring 1994 publication.
Zimmerman, Walter, and Steve Cunningham, eds., 1991.Visualization in Teaching and Learning Mathematics. Washington, D.C.: Mathematical Association of America.

Friday, September 5, 2025

Visual Thinking and AI Technologies

Once again, I am wondering whether my Blog friends will be interested in more of my work on visual thinking, dyslexia and possible links to AI -- now so much in the news -- as well as being featured in big company and government budgets.
Note: The following short draft is intended to provide some examples and context from the more extensive archive listings now in preparation. (Selected from 167 total pages of archive listings to date.) Intended for limited circulation and as a working paper for an international group based in Stockholm, Sweden, with interests in the expected effects of AI, visual thinking and the strengths of individuals with dyslexia. Revised, July and August, 2025. – TGW
A Time of Fundamental Change:
The Larger Context of Advanced Visual and AI Technologies
A Return to Visual Thinking -- Beginning to Understand the Strengths of Dyslexics in Design, Business and Science
Reconsidering Different Strengths and Ways of Learning to Prepare for the New Technological Realities of Chatbots and AI
Brief Excerpts and Samples from Current Archive Listings
Having been asked to give talks to many different groups in 19 countries, remarkably, West noted that the higher up he would go -- among Nobel Prize winning scientists, for example -- the more likely he would find those who readily understood patterns in unexpected weaknesses along with very high-level strengths -- frequently featuring strong visual thinking, with big picture and interconnected thinking as major factors.
He gradually realized that many low-level scientists, practitioners and educators mainly know what they have been taught during their training; while for very high-level scientists, it is a great advantage to think differently and to see patterns that others do not see, patterns that are often initially resisted and misunderstood by those with conventional training.
Thomas G. West has been privileged to be given an insider’s view of the sometime relationships between high-level capabilities and various unexpected weaknesses and learning difficulties. With Chatbots and the newest advances in AI in the headlines everywhere, he finds new relevance of fundamental issues that he has been dealing with in his books and talks for more than 30 years.
With his early books, articles and talks about visual thinking, visual technologies, computer graphics and simulation, dyslexic talents and other learning differences, West found that he was quickly swept up in waves of fundamental change in attitudes and approach. Indeed, some indicators came quite early -- for example:
West’s first book, In the Mind’s Eye, was published in April 1991. Recently, he was going through some old papers and found this note about some early reactions to the book:
“October 17, 1991. West attended a meeting at the National Institutes of Health Image Processing Group lecture series this afternoon at the NIH Clinical Center [a massive hospital building]. While there, Margaret (Bonnie) Douglas, who managed the lecture series, mentioned that his book was causing a sensation among her colleagues and associates -- chiefly made up of those programmers working with computer medical imaging, data visualization and related matters. She said their department librarian had never seen such a long waiting list for one book. The book cover had been displayed with new arrivals at the library and a few had heard his talk the previous May, but other than word-of-mouth, Bonnie found it hard to explain how people had learned of the book. ‘It certainly seems to have touched a nerve somewhere; perhaps you will have a cult book on your hands, she remarked.’ ”
Reconsidering Different Ways of Learning:
Recent Advances in AI, Calling for Urgent Action.
What Can Be Learned for Reforming Today’s Education from The Most Successful Visual Thinkers and Dyslexics? Could They Show the Way Forward with Distinctive Innovation, Big Picture Thinking and Major Reassessments of What to Teach and How to Teach?
What Can Humans Do Using These New Machines?
What Can Humans Do Better Than These Machines?
In the early days of these changes, some educators were asking:
“Won’t Students just use Chatbot GPT to Cheat?
“Yes, but only if we continue to assess students in the same outdated ways. . . . Soon Chatbot GPT will be as expected and ubiquitous as spell check. Spell check empowers poor spellers by preventing their difficulties from impacting their ability to effectively communicate. In the near-term the same will be true for individuals who have difficulty organizing their ideas through written expression. . . . AI could (SHOULD) Change the Ways We Measure Potential.
“ChatbotGPT4 can outperform the vast majority of people on some of our most consequential standardized exams. It scored 700/800 on the SAT Math section, in the top 10% of the bar exam, in the 85 % of the LSAT and a 4 and 5 on the AP Calculus and AP Biology Exams. It even aced the Sommelier exam. Interestingly, it did not fare as well on the AP language exams which require higher levels of creativity and interpretation.
“In a world where a computer can outperform the vast majority of humans on these exams, how can they possibly be an accurate prediction of who will be successful? In fact, they would seem to only predict who has the skills that can be better performed by computers. Dyslexic learners stand to be the beneficiaries of this shift in what is important and how we measure it.” (J. Clark, Chair of the International Dyslexia Association, email to IDA group of school heads, April 2023.)
The Cybernetic Industrial Revolution – High Level Brain Effects
As machines have long ago replaced assembly line workers and most bank tellers, we may not have been surprised to see an erosion of opportunities for those with certain clerical skills. But many of us may not have been ready to see that there may be great changes in the highest levels of managerial and professional roles as well. One of the fathers of computing and control systems, Norbert Weiner, in his book Cybernetics (he invented the word), saw it coming from the first. Writing in 1947, he explained,
“The first industrial revolution was the devaluation of the human arm by the competition of machinery. The new modern industrial revolution is similarly bound to devalue the human brain, at least in its simpler and more routine decisions. Of course, just as the skilled carpenter, the skilled mechanic, the skilled dressmaker have in some degree survived the first industrial revolution, so the skilled scientist and the skilled administrator may survive the second. However, taking the second revolution is accomplished, the average human being of mediocre attainments or less has nothing to sell that is worth anyone’s money to buy.”
After more than 75 years, this is an especially sobering view. Much has come about that was unexpected since Weiner’s somber analysis, but the basic form and direction of this trend has remained largely unchanged – recently exploding into everyday life.
It is clear that not only clerical and other low-level functions are threatened but also many functions formally thought to require high intelligence, many years of study and advanced professional degrees. Clearly, the conventional world of work and education is being turned upside down and we must begin to change conventional thinking and consider new plans of action.
However, we may be surprised to see help from unexpected quarters. Indeed, some of those who have had the most trouble in the old educational systems, may soon begin to show the way forward in the new worlds of education and work.
The skills and capabilities of the former top students are now, in many cases, being replaced by fast and cheap machines. In contrast, the world may soon grow to value highly the creative big picture thinking, pattern recognition and innovative problem-solving capabilities often observed among visual thinkers and dyslexics.
That's it for now. More to come later. -- TGW

Wednesday, March 5, 2025

LEGO and Dyslexia in Denmark

Recently, going through some old notes about invited talks years ago, I found something of possible interest to parents of young children who love to play with LEGO -- and maybe others as well.

Invited speaker. The Netherlands Design Institute in Amsterdam: “Doors of Perception,” October 30-31, 1993, Stedelijk Museum, Amsterdam, organized by The Netherlands Design Institute and Mediamatic magazine.
Program description: “DoP is a ground breaking conference for which leading thinkers from the fields of graphic and industrial design, architects, information technology, philosophy, computer science, business and media will assemble . . . to consider the cultural and economic challenges of interactivity plus the role of design in turning information into knowledge, for example, through the visualization of complex scientific data. . . .”
Other speakers included Louis Rossetto, the founding editor and publisher of the first Wired magazine (published in Europe well before moving to the US and later sold to a major US publisher).
West was recruited to speak at this first conference of the newly formed Netherlands Design Institute based on a talk he had given only two months earlier at the ACM SIGGRAPH computer graphics conference in Los Angeles -- where he had been video-taped by a Netherlands Design Institute scout from Amsterdam. (For this talk West observed an unusual Dutch practice: He was paid his speaker’s fee in cash, using crisp US bills of $100.)
Please see a letter . . . from a designer met at this Amsterdam conference. An excerpt: “It was a pleasure to have met you at the ‘Doors of Perception’ seminar in the Netherlands. I enjoyed listening to your talk on visual thinking. It was inspiring and was very appropriate in that particular forum. I found your talk of particular relevance to my work with LEGO. . . . I work for LEGO in a capacity as a designer visualizer. I’m sure you understand how your talk and book was a great inspiration. In the Mind’s Eye is a real eye opener. Your book has given me a detailed insight into the way my mind works and why it behaves the way it does.”
“The book is well researched and it is edited in such a way that it becomes a useful reference book. In the Mind’s Eye should be read by teachers and parents alike who have children in their care that show traits of dyslexia. It will enlighten them all about the gift of dyslexia and its many advantages that it can provide the individual and possibly society. As we discussed during our meeting in the Netherlands, the Vice President of my research department at LEGO . . . is a cofounder of a school for dyslexics in Brande, Jutland. It is the first school of its type in Denmark and has a campus of 50 students.” K.B., Lyngby, Denmark, 21st April, 1994.”

Saturday, February 22, 2025

New Rough Bio Notes Feb 22, 2025

Rough basic bio material for TGW obit based on notes below -- includes AI speculation

News for Gettysburg College Class Notes -- March 22, 2023, Revised Feb. 22, 2025

 Rev. Dr. John R. Nagle

2115-102 Lossen Loop

Wilmington, N.C. 2849

919-602-1623

jrnagle@nc.rr.com

In my last column, I asked for stories of books and travel for the class of ’65 news. I received a long reply from Thomas G. West – and Tom asked me to use or cut parts, as I liked. 

Any books or publications? Well, in fact, yes, Tom says – with three books still in circulation, sometimes with new editions and new additional material. The first book, In the Mind’s Eye, published in 1991 was recently released in a Third Edition, by a new publisher (which had bought the old publisher with its many titles). It has been in print continuously now going on 32 years -- what they call in the trade an “evergreen” – a title that never ages and never stops selling. This new edition includes supportive introductory material from Dr. Oliver Sacks and Dr. Temple Grandin.

Earlier in the year, Tom reports that an article was published in a Singapore journal, “Dyslexic Strengths in Times of Adversity” (Asia Pacific Journal of Developmental Differences). In addition, he was asked to prepare a short chapter “Visual Thinker and Medical Visionary” for a comprehensive book (IOS Press, Amsterdam) about the career of the late Donald A.B. Lindberg, MD, former director of the US National Library of Medicine. Among many innovations, Dr. Lindberg was a major force in helping to make medical information available within the US and eventually to the world via the then new Internet. (See blog link below for document copies and related material.)


Any travels? Well, quite a lot, but in the past. Tom reports that he has given hundreds of invited talks in many parts of the US and 19 foreign countries, all before the pandemic. After some 30 years of travel and talks in these countries, Tom says he has been happy to be active lately mainly via the Internet -- with groups interested in the talents of dyslexics and other different thinkers. During and soon after the pandemic, talks have been given via zoom to audiences in Egypt, The Netherlands, Singapore and most recently, Zimbabwe. 

Tom reports that now more than ever dyslexia is increasingly seen as an advantage in many technical, entrepreneurial business and scientific fields. Business consulting firms like EY have generated reports documenting that many employers are now looking to hire creative and innovative dyslexics. LinkedIn has instituted a check box for “dyslexic thinking” as a positive trait for job hunting and it is said that more than 10,000 checked the box in early years. 

Indeed, some observers are now beginning to think that the memorization and rapid test taking capabilities most valued in conventional “A” students are now being taken over by AI bots that get top scores on professional exams -- at low cost, with great speed. Accordingly, some observers are beginning to wonder whether some dyslexic visual thinkers might be able to see patterns and solve problems in ways not available to the bots or conventional “A” students.

In recent years, Tom has been meeting each four to six weeks via zoom with an international group named “Whole” that is interested in the talents of dyslexics. Based in Stockholm, Sweden, the group includes researchers from Oxford, Cambridge and Sheffield universities in the UK as well as researchers and advocates from the Netherlands, China/Canada, Iran, France and Singapore. Tom reports that he is also an active board member for two dyslexia related organizations, Siena School, a high school near Washington, DC, and a consultancy, Dyslexic Advantage, in the Seattle, Washington, area.


All this may seem quite improbable considering Tom’s own early history: A student who could hardly read at all until he was about 9 or 10 years old. A late bloomer who continued to struggle with memorization and other academic work. But slowly he began to see strengths in other areas -- like visual thinking, pattern recognition, big picture thinking, careful research and eventually story telling in his books and articles. It seems an improbable story, but actually, in many ways his story is a typical of many dyslexics. His dyslexia was not recognized until he was tested at age 41 years, after his two dyslexic sons – a common pattern. 

Now, as he approaches 82 years of age, like so many in our ’65 class, all of this might seem difficult to understand. But those with dyslexia (and other different thinkers) we now know can be full of paradoxes and surprises – successful authors who cannot spell; high level mathematicians who do not know their math facts; architects who cannot draw.

Tom’s invited talks have varied, depending on the main interests of the audience, but have usually been either about dyslexic talents or about visual thinking in 3D space and the rapidly emerging powerful visual and computer graphic technologies (more recently often providing the technical basis for today’s quickly advancing AI systems). 

 

While giving talks in many different countries, varied levels of interest have been observed in these ideas and concepts. Remarkably, he found that high-level, creative scientists are often the most interested in these observations, while many conventionally trained educators and school psychologists are usually not interested (mostly because they have never been trained to see these unexpected patterns of high ability or very high ability among these students).

 

Some of the groups that have shown the highest interest in West’s talks have been: scientists in the 50 Max Planck Institutes in Germany, the NASA Ames Research Center in Silicon Valley California, Harvard and MIT education groups, Oxford and Cambridge University research centers in England, the U.S. National Library of Medicine-National Institutes of Health, the Dyslexia Association of Singapore, Hong Kong pediatricians and the master spies (and former breakers of the Nazi codes) at GCHQ in the UK. These are practitioners, innovators, discoverers, practical users who see evidence of these special capabilities every day.

 

Accordingly, based on his invited talks to many different groups, Tom has observed that the higher up he would go -- among Nobel Prize winning scientists and award-winning physicians and surgeons, for example -- the more likely he would find those who readily understood these patterns in unexpected weaknesses along with very high-level strengths. Gradually he realized that a lot of low-level scientists (and other professionals) mainly know what they have been taught; while for very high-level scientists, it is a great advantage to think differently and to see patterns that others do not see. Of course, this is also true for many entrepreneurs, artists, designers and inventors.

 

After reading Tom’s first book, a highly respected molecular biologist at Caltech and a top prize-winning pediatric surgeon, contacted him, separately, with the same general message: “I have read your book. It explains how I think; no one else understands. Please visit, I want to tell you my story.” [Total words: 1122]

 

Blog: inthemindseyedyslexicrenaissance.blogspot.com. Email: thomasgwest@gmail.com.

 

 

 

 

Saturday, January 18, 2025

A Time of Fundamental Change

  

DRAFT -- Note: The following short draft of 38 pages is intended to provide some examples and context from the more extensive archive listings now in preparation. (Selected from 167 total pages of listings to date.) Three additional pages have been added recently to provide information about a highly skilled film stunt pilot who was likely to have been dyslexic. Intended for limited circulation as a working paper for members of WHOLE, the international dyslexic strengths network based in Stockholm, Sweden. Various comments about books and articles have been included here mainly to show evidence of trends and changes in attitudes and understanding over recent decades. Revised November 2024 and January 2025. – TGW

 

A Time of Fundamental Change:

 

The Larger Context of Advanced Visual and AI Technologies

 

A Return to Visual Thinking -- Beginning to Understand the Strengths of Dyslexics in Design, Business and Science

 

Reconsidering Different Strengths and Ways of Learning to Prepare for the New Technological Realities of Chatbots and AI

 

Brief Excerpts and Samples from Current Archive Listings

 

Having been asked to give talks to many different groups in fourteen countries, remarkably, West noted that the higher up he would go -- among Nobel Prize winning scientists, for example -- the more likely he would find those who readily understood patterns in unexpected weaknesses along with very high-level strengths -- frequently featuring strong visual thinking, with big picture and interconnected thinking as major factors.

 

He gradually realized that many low-level scientists and practitioners mainly know what they have been taught during their training; while for very high-level scientists, it is a great advantage to think differently and to see patterns that others do not see, patterns that are often initially resisted and misunderstood by those with conventional training.

 

Thomas G. West has been privileged to be given an insider’s view of the sometime relationships between high-level capabilities and various unexpected weaknesses and learning difficulties. With Chatbots and the newest advances in AI in the headlines everywhere, he finds new relevance of fundamental issues that he has been dealing with in his books and talks for more than 30 years. 

 

With his early books, articles and talks about visual thinking, visual technologies, computer graphics and simulation, dyslexic talents and other learning differences, West found that he was quickly swept up in waves of fundamental change in attitudes and approach. Indeed, some indicators came quite early -- for example:

 

West’s first book, In the Mind’s Eye, was published in April 1991. Recently, he was going through some old papers and found this note about some early reactions to the book: 

 

“October 17, 1991. West attended a meeting at the National Institutes of Health Image Processing Group lecture series this afternoon at the NIH Clinical Center. While there, Margaret (Bonnie) Douglas, who managed the lecture series, mentioned that his book was causing a sensation among her colleagues and associates -- chiefly made up of those programmers working with computer medical imaging, data visualization and related matters. She said their department librarian had never seen such a long waiting list for one book. The book cover had been displayed with new arrivals at the library and a few had heard his talk the previous May, but other than word-of-mouth, Bonnie found it hard to explain how people had learned of the book. ‘It certainly seems to have touched a nerve somewhere; perhaps you will have a cult book on your hands, she remarked.’ ”

 

Reconsidering Different Ways of Learning:  

Recent Advances in AI, Calling for Urgent Action. 

 

What Can Be Learned for Today’s Education from The Most Successful Visual Thinkers and Dyslexics? Could They Show the Way Forward with Distinctive Innovation, Big Picture Thinking and Major Reassessments of What to Teach and How to Teach?

 

What Can Humans Do Using These New Machines? 

 

What Can Humans Do Better Than These Machines? 

 

In the early days of these changes, some educators were asking: 

 

“Won’t Students just use Chatbot GPT to Cheat?

 

“Yes, but only if we continue to assess students in the same outdated ways. . . . Soon Chatbot GPT will be as expected and ubiquitous as spell check. Spell check empowers poor spellers by preventing their difficulties from impacting their ability to effectively communicate. In the near-term the same will be true for individuals who have difficulty organizing their ideas through written expression. . . . AI could (SHOULD) Change the Ways We Measure Potential.

 

“ChatbotGPT4 can outperform the vast majority of people on some of our most consequential standardized exams. It scored 700/800 on the SAT Math section, in the top 10% of the bar exam, in the 85 % of the LSAT and a 4 and 5 on the AP Calculus and AP Biology Exams. It even aced the Sommelier exam. Interestingly, it did not fare as well on the AP language exams which require higher levels of creativity and interpretation.

 

“In a world where a computer can outperform the vast majority of humans on these exams, how can they possibly be an accurate prediction of who will be successful? In fact, they would seem to only predict who has the skills that can be better performed by computers. Dyslexic learners stand to be the beneficiaries of this shift in what is important and how we measure it.” (J. Clark, Chair of the International Dyslexia Association, email to IDA group of school heads, April 2023.)

 

The Cybernetic Industrial Revolution – High Level Brain Effects

 

As machines have long ago replaced many assembly line workers and most bank tellers, we may not have been surprised to see an erosion of opportunities for those with certain hands-on and clerical skills. But many of us may not have been ready to see that there may be great changes in the highest levels of managerial and professional roles as well. One of the fathers of computing and control systems, Norbert Weiner, in his book Cybernetics, saw it coming from the first. Writing in 1947, he explained,

 

“The first industrial revolution was the devaluation of the human arm by the competition of machinery. The new modern industrial revolution is similarly bound to devalue the human brain, at least in its simpler and more routine decisions. Of course, just as the skilled carpenter, the skilled mechanic, the skilled dressmaker have in some degree survived the first industrial revolution, so the skilled scientist and the skilled administrator may survive the second. However, taking the second revolution is accomplished, the average human being of mediocre attainments or less has nothing to sell that is worth anyone’s money to buy.”

 

After more than 75 years, this is an especially sobering view. Much has come about that was unexpected since Weiner’s somber analysis, but the basic form and direction of this trend has remained largely unchanged – recently exploding into everyday life. 

 

It is clear that not only clerical and other low-level functions are threatened but also many functions formally thought to require high intelligence, many years of study and advanced professional degrees. Clearly, the conventional world of work is being turned upside down and we must begin to change conventional thinking and consider new plans of action. 

 

However, we may be surprised to see help from unexpected quarters. Indeed, some of those who have had the most trouble in the old educational systems, may soon begin to show the way forward in the new worlds of education and work. 

 

The skills and capabilities of the former top students are now being replaced by fast and cheap machines. In contrast, the world may soon grow to value highly the creative big picture thinking, pattern recognition and innovative problem-solving capabilities often observed among visual thinkers and dyslexics. Several suggestive examples are provided below. 

 

 

 

A Short Archive Listing with a few Examples of Significant 

Past Events, Talks, Media and Documents – Related to Visual Thinking, AI Technologies and Dyslexic Strengths

 

“Dyslexia Is Britain’s Secret Weapon in the Spy War”

 

(1) In June 2006, Thomas G. West was honored to be invited to be the main speaker at the first ever “Diversity Day” conference in Cheltenham, England, for the staff of GCHQ, the code-breaking descendants of Bletchley Park (the World War II Nazi code breakers and the source of “Ultra,” the extremely secret intelligence source for Winston Churchill, never revealed to the public until the 1970s). According to one employee at GCHQ, “while people with neuro-diversity may be viewed as ‘odd or weird,’ they are ‘fully accepted’ at GCHQ.” 

 

GCHQ officials and cyber experts make it quite clear that their dyslexic employees, among others, are viewed as highly valued workers. As one spokesperson said in an article for the Daily Mail, “Dyslexia Is Britain’s Secret Weapon in the Spy War: Top Codebreakers Can Crack Complex Problems Because They Suffer from the Condition. . . . Most people only get to see the jigsaw picture when it’s nearly finished while the dyslexic cryptographists can see what the jigsaw looks like with just two pieces.” (Also see section in West’s third book, Seeing What Others Cannot See, “Seeing the Puzzle with Only Two Pieces -- Learning Differences at GCHQ,” West, 2017, pp. 147-150.)

 

The following Saturday after the GCHQ diversity conference, there was an informal gathering for several employees and their families -- with a pub lunch and a walk around the village -- where one teen-aged son said, “Now I finally begin to understand my father.”

 

At one point, after the walk, West found himself sitting with a group of seven at the edge of our host’s garden, gradually discovering that all of those with him had recently been diagnosed with Asperger’s Syndrome, now known as Autism Spectrum Disorder (ASD). He was glad to have shown earlier that day a short clip about Temple Grandin from a recent BBC film on her visual thinking and her life and work as an autistic person. Among other things, they discussed The Curious Incident of the Dog in the Night-Time by Mark Haddon and connections with the Sherlock Holmes story “Silver Blaze” (involving the significance of “the dog that did not bark”). 

 

It is apparent that organizations such as GCHQ (and possibly the NSA in the US) are important places to better understand unexpected patterns in extraordinarily high performance and to seek connections between visual thinking, dyslexia, autism and other forms of different thinking. 

 

This approach is especially important since conventional professional literature and training has often focused exclusively on correcting academic weaknesses and problems without consideration of a range of special talents and capabilities – talents which are likely to be increasingly valuable over time. (Later, more for this archive is to be provided concerning this important GCHQ meeting and related corporate organization management policies. Full credit to JT and RT at K4L -- TGW.)

 

(2) “Playing With Images – A Return to Thinking in Pictures.” A short article by West with this title appeared in Computers in Physics magazine. This led to an invitation for West to speak to the annual gathering of 50 Max Planck Institutes in Germany. The topic was the main theme of their conference that year. An excerpt from the article: 

 

“Some highly creative thinkers have shown a propensity to think visually, transforming mental models and playing with images. In mathematics and the physical sciences, Henri Poincare, Michael Faraday, James Clerk Maxwell, J. Willard Gibbs and Albert Einstein, among others, fit this pattern. 

 

“In recent times, abstract mathematical models have largely replaced visual thinking in the process of mainstream science. Visual techniques have come to be viewed as regressive. Now, however, with the development of computer-based visual techniques, this judgment may reverse, and visual thinking may come once again to occupy a more central – and productive – role in the scientific process. . . .

 

“Albert Einstein’s ‘productive thought’ relied heavily on ‘more or less clear images’ that could be ‘voluntarily reproduced and combined,’ as he explained (West, 1991, P. 26). ‘Conventional words or other signs’ that ‘could be understood by others’ had to be sought ‘laboriously’ and only in a ‘secondary stage,’ after the ‘associative play’ with images what is sufficiently established and ‘could be reproduced at will.’ 

 

“Computer techniques have made it possible for many scientists to ‘play’ with images in a way that Einstein had done in his imagination. Using computers, we are now able to develop visual models and thought experiments and to share them with others.” (American Institute of Physics. Computers in Physics, Vol. 10, No.5, SEP/OCT 1996.) The magazine also noted: “His book, In the Mind’s Eye, (Prometheus, 1991), is now in its seventh printing in English and fifth printing in Japanese translation (Geniuses Who Hated School, Kodansha Scientific, 1994).” West’s talk for the Max Planck Institute was presented in English and was translated into German for the printed conference proceedings.

 

Additional Invitations to Speak from the 

Worlds of Visual Thinkers, Creative Scientists and Talented Dyslexics

 

West is the author of three books, In the Mind’s EyeThinking Like Einstein and Seeing What OtherCannot See. From 1991 to recent years, he has given many presentations in the U.S. and 14 countries in Europe, the Middle East and the Asia/Pacific Region. 

 

Early on, West found that he was invited to provide presentations for a variety of high-level institutions and organizations as part of a new awareness of fundamental change with respect to visual thinking, visual technologies and AI -- along with new ways of thinking about the distinctive talents and capabilities of dyslexics and other different thinkers. 

 

Real World Perspectives

 

In most cases, the high interest in these topics and trends was from those who were observing these capabilities in actual operation and use “in the real world” of scientific discovery, medical innovation and entrepreneurial business. 

 

However, during this time some conventional experts, specialist academics and practicing professionals seemed to find it difficult to understand and appreciate these changes in perspective. They had been trained to rely on traditional tests and conventional measures and a conceptual framework that favors conventional verbal and mathematical academic capabilities along with extensive memorization -- instead of visual thinking, close original observation and “thinking in pictures” -- that is, the manipulation of images or changing processes and dynamic forms over time in three-dimensional space -- in the imagination -- especially in science, engineering, mathematics and other fields. 

 

These experts have long highly valued students who could easily memorize old knowledge -- but they often have very little understanding of those who may be best suited to creating really new knowledge. 

 

“A Return to Visual Thinking” as a New Beginning 

 

New Views of Knowledge, Ability and Potential 

 

These changes in awareness were partly based on the rapidly emerging great power of new computer graphics and related early AI technologies during this period. However, this new awareness was also based on a renewed recognition of the power of the visual thinking as used by earlier scientists, engineers and inventors, such as Michael Faraday, James Clerk Maxwell, Albert Einstein, Nikola Tesla and others.

 

Thus, “A Return to Visual Thinking” was the main theme of an annual meeting of European scientists -- and West’s invited presentation for this meeting -- for the 50 Max Planck Institutes in Germany in 1993.

 

Over time, West noticed that when he spoke about visual talents and learning differences in highly positive ways, with credible positive examples, some of those in his audience felt free, sometimes for the first time, to talk about considerable strengths and hidden dyslexic and other weaknesses in themselves, their family members and their most talented co-workers. 

 

Remarkably, West noted that the higher up he would go -- among Nobel Prize winning scientists, for example -- the more likely he would find those who readily understood these patterns in unexpected weaknesses along with very high-level strengths.

 

(In one case, West came to know well one UK family in which, over five generations there were many dyslexics, many visual occupations and four Nobel Prize winners in physics. Additional information about this family is provided below.)

 

West gradually realized that a lot of low-level scientists and practitioners mainly know what they have been taught (and memorized); while for very high-level scientists, it is a great advantage to think differently and to see patterns that others do not see.

 

For example, the Markle Scholars in Academic Medicine, the Fifty-Year Reunion (item 2, below). In this striking and unexpected example, during the course of the conference, among these highly praised, award-winning physicians and highly regarded medical school professors, roughly half of those attending spoke to West of their own dyslexia, the dyslexia of talented coworkers or the dyslexia of highly creative members of their own families. 

 

Accordingly, the events and documents listed in this archive might serve, in part, as an informal preliminary survey of the development of these fundamental observations in various scientific and technical occupations in various parts of the world over some three or four decades. 

 

See the sample items and events listed below for some of the best examples of how these changes in perspective have been recognized, adopted and promoted by high-level organizations such as MIT and NASA Ames in the US, GCHQ, Oxford and other universities in the UK, along with the 50 Max Planck Institutes in Germany -- as well as several other high level  institutions in Europe and Asia. 

 

Preservation of Key Archive Materials, Unexpected Patterns  

 

It is considered important to preserve these primary source archive materials for further systematic study of the early years of these important trends -- trends that are likely to increase in importance with the continuing rapid growth of computer power and connectedness along with advanced applications of AI (in recent years more in evidence now than ever before). 

 

In a sense, the early broad and varied acceptance of the first book itself has uncovered unexpected patterns in high talent that would otherwise been invisible to conventional researchers and conventional methodologies. 

 

Long Predicted, Major Work Transformations Have Arrived

 

As machines increasingly take over low level clerical and professional tasks, the creativity, innovation, visual and big picture thinking often seen among dyslexics, and other different thinkers, should be expected to increase in relative value. 

 

This trend is even more apparent recently as AI programs such as ChatGPT are now capable of taking over certain basic search, analysis and report preparation tasks, with amazing speed but not always with the highest levels of accuracy -- since they generally only repeat, without proper fact checking, or seasoned judgement, what is available on the web – in recent months producing a flood of news stories and increasingly broad speculations.   

However, even before current trends, it is notable that in recent years dyslexia had already come to be viewed as an advantage in many technical, scientific and entrepreneurial business fields. Business management consulting firms like EY (formerly Ernst and Young) have generated reports documenting that many employers have been looking to hire creative and innovative dyslexics. Some time ago, the job search service LinkedIn introduced a check box for “dyslexic thinking” as a positive trait for job hunting -- and it was reported that more than 10,000 had checked the box in early years. 

 

It is notable than over the years well-trained professionals have struggled to  mainly to help dyslexics master reading and basic traditional academic work – while few have helped dyslexics to recognize and develop the high-level visualization, big picture thinking and innovation capabilities that seem to be common, in various forms, among many dyslexics – capabilities that may provide a considerable advantage in future career possibilities. 

 

These high-level skills that should be in greater demand as the low-level reading, search, report preparation and other conventional academic tasks are increasingly done much, much faster and more cheaply by machines. This phase was predicted from the earliest days of computing – but now it has clearly already arrived. 

It is also expected, remarkably, that the shift to big picture and visual thinking may also serve to highlight the value of some traditional modes of thought found among some disadvantaged groups and indigenous peoples. (See the “Native Voices” references to ancient traditional Polynesian navigation methods mentioned in the brief chapter requested for the National Library of Medicine book on the career of Donald A.B. Lindberg, MD, provided here as Appendix A.) 

 

Early Recognition for Dyslexic Strengths and a Different Point of

View – As Seen in “Best of the Best” Publication

 

West’s first book, In the Mind’s Eye, was awarded a gold seal and selected as one of the “best of the best” for the year out of some 6000 reviewed books by the Association of College and Research Libraries of the American Library Association (one of only 12 books in the broad “Psychology” category, including books on “neuroscience, intelligence testing, language impairment, mental health and psychiatry”).

 

The book has been translated into Japanese, Chinese and Korean. Over more than 30 years, West has provided many presentations for scientific, medical, art, design, computer and business groups in the US and 14 other countries. 

 

The interest in these topics, across many different fields and disciplines, has been an indicator of the timeliness and broad impact of these perspectives and publications -- largely initially based on the remarkably prescient original work by the neurologists Dr. Samuel Torrey Orton in the 1920s and Dr. Norman Geschwind and his students in the 1980s.

 

The second edition of In the Mind’s Eye includes a Foreword by the late Oliver Sacks, MD, who said “In the Mind's Eye brings out the special problems of people with dyslexia, but also their strengths, which are so often overlooked. . . . It stands alongside Howard Gardner's Frames of Mind as a testament to the range of human talent and possibility.” According to one early reviewer: “Every once in a while a book comes along that turns one's thinking upside down. In the Mind's Eye is just such a book.” 

 

A broad and enduring interest in these topics is further indicated by the reissue in July 2020 of a Third Edition of West’s first book, In The Mind’s Eye. With over 30 years in print, the book continues to be what they call in the trade an “evergreen” -- a book that never dates and never stops selling. The two previous revised and expanded editions (Updated Edition and Second Edition) each contain Epilogues with some 40 to 50 pages of new material. 

 

 

Selected Additional Examples of Events and Documents

 

 

(1) Markle Scholars in Academic Medicine, Fifty-Year Reunion, September 17-19, 1998, Arizona Biltmore Resort. Speakers included, among others: Donald A.B. Lindberg, MD, Director, National Library of Medicine; Gerald M. Edelman, Scripps Research Institute (Nobel Prize winner); Howard Gardner, Harvard Graduate School of Education (MacArthur Prize winner); and Thomas G. West, Krasnow Institute for Advanced Study, George Mason University. 

 

Markle Scholars were identified by medical school deans as the best medical school professors and teachers in the US and Canada during several decades after WWII. Dr. Lindberg suggested that West provide a brief proposal for a talk at the gathering. Indeed, as it turned out, the organizers were interested. 

 

In his talk, West spoke primarily of visual thinking among creative scientists and recent developments in visual technologies and computer graphics. However, West also spoke of how visual thinking and associated innovation were sometimes linked to dyslexia and other related learning differences. 

 

Remarkably, during the course of the three-day conference, roughly one half of the attendees and their spouses spoke to West about their own dyslexia (two surgeons from Johns Hopkins, for example) or told stories of dyslexia among their coworkers or the more creative and innovative members of their own families. (See a highly supportive letter received later from a Canadian physician, another Markle Scholar; to be provided for the archive. -- TGW) 

 

Some have remarked that this early group of highly talented surgeons, professors and medical professionals may have relied more on visual thinking and practical hands-on skills – whereas later these visual thinkers may have been eliminated from professional training opportunities by more modern testing and evaluation systems – systems that would favor memorization and rapid conventional test taking skills. 

 

(2) A small, high-level, visualization, science and technology conference at MIT. Program description: “IM: Image and Meaning Conference, MIT, June 2001, Envisioning and Communicating Science and Technology. Who We Are: In late spring of 2001 we have come together at MIT to consider images in science to learn from each other to add something of our own, we are shown here in name and image.” 

 

Attendance was by invitation only. Each attendee was asked to provide an image that represented their work -- to be worn as part of their name tag -- for discussion with other attendees. The conference handout (to be provided separately for inclusion in the archive) includes 210 images with attendee names and organizations. 

 

Speakers and attendee participants included Benoit Mandelbrot (his image was the famous “Mandelbrot Set”), E.O. Wilson (an image of a tree) and Victor Spitzer (an image from the Visible Human Project; he was one of the developers of the Visible Human Project for NLM). 

 

The image for West was the very early x-ray crystallographic image produced by Sir William Lawrence Bragg, used to discover Bragg’s Law, which is the basis for the determination of crystal atomic and molecular structure, and later, the well-known discovery of the structure of DNA by Watson and Crick (while Bragg was their boss). This image was supplied to West by Bragg’s daughter, Patience Bragg Thomson, former head of a school for dyslexic students in London. This family includes, over five generations, many visual occupations, many dyslexics and four winners of the Nobel Prize in Physics, two for the x-ray crystallographic discoveries. 

 

West was familiar with the book Fractal Geometry of Nature by Benoit Mandelbrot and had been impressed with this very new and innovative form of mathematics. West hoped to be able to speak with Dr. Mandelbrot during the small three-day conference. In fact, as it turned out, West had several conversations with him. Mandelbrot talked about the hostility he had encountered from most conventional mathematicians, especially at Harvard University, where he had been teaching at the time. He then moved on to Yale University where, in contrast, they showed respect for Mandelbrot’s highly innovative approach to mathematics. 

 

West mentioned his own interest in highly talented visual thinkers and dyslexics in science and mathematics and asked whether Dr. Mandelbrot had ever encountered any dyslexics among his work associates. He laughed and said: “If you ask my wife, she is convinced that I am dyslexic myself.” Later, West heard of several additional reports from others where Mandelbrot had spoken elsewhere of his own dyslexia. 

 

West was not surprised by this revelation because Dr. Mandelbrot’s work is extremely visual in nature and extremely original in orientation and approach, successfully employing the then most modern computer graphics technologies (actually starting with the most primitive early forms of computer graphics, well before others, because he was working for IBM at the time). These aspects are seen as signature indictors of the creative work of a classic visually-oriented approach as seen among many dyslexics.

 

 

 

APPENDIX A

 

Note: The short chapter below was requested for the book on the Dr. Lindberg’s life and career, published February 1, 2022, by IOS Press, Amsterdam. 

 

Transforming Biomedical Informatics and Health Information Access B.L. Humphreys et al. (Eds.) © 2021 The authors and IOS Press. This article is published online with Open Access by IOS Press and distributed under the terms of the Creative Commons Attribution Non-Commercial License 4.0 (CC BY-NC 4.0). doi:10.3233/SHTI211027 

Personal Memories of Donald A.B. Lindberg M.D., Visual Thinker and Medical Visionary

Thomas G. WESTWashington D.C. U.S.A.

Keywords. Donald A.B. Lindberg M.D., visual thinking, computer graphics technology, dyslexia, U.S. National Library of Medicine

1. Introduction 

From the late 1980s until his retirement in 2015, I was privileged to observe the forward- thinking and astonishing depth, range, and liveliness of the National Library of Medicine (NLM) under the direction of Donald A. B. Lindberg M.D. 

As an outsider, I observed from my point of view as an ordinary library researcher. I mainly utilized NLM’s History of Medicine collections for information about innovative scientists like Michael Faraday and medical pioneers such as Dr. Harvey Cushing. Initially, I used the old paper index catalog cards, microfilm, and the early NLM mainframe computer information systems to research and prepare the manuscript for my first book, In the Mind’s Eye, published in spring 1991 [1]. 

I first met Dr. Lindberg at a gathering after a lecture in NLM’s Lister Hill Building. He asked about my work. I explained that my research focus concerned the talents of dyslexic individuals - together with visual thinking in the history of medicine and science. I was surprised to discover that Dr. Lindberg also was interested in these topics. 

I later learned that these interests were partly a reflection of his personal history. Don’s father was an architect. Don was trained in a highly visual specialty, pathology, and some family members were dyslexic. As is often the case, this kind of personal history helps some to understand and appreciate the puzzling mixed strengths and weaknesses that accompany these life patterns. 

I also was fascinated that Don’s interests included then-rapidly developing computer graphic technologies as well as the hidden talents of dyslexics (who often see things differently) to innovate and sometimes make scientific discoveries before conventionally trained experts in some fields. Over time, I began to appreciate that Dr. Lindberg had a remarkable ability to see where things were going and attract highly talented and creative people for his staff, NLM’s Board of Regents, and the Library’s diverse, inventive projects. 

Over the years, Dr. Lindberg assumed leadership positions in several major areas - archiving massive amounts of genetic code information (within the National Center for Biomedical Information), providing research information in clinicaltrials.gov, and even leading a federal government-wide effort - the High-Performance Computing and 

Corresponding author: thomasgwest@gmail.com 

T.G. West / Personal Memories of Donald A.B. Lindberg M.D. 417 

Communications Program (HPCC). He once remarked to me how difficult it was to deal with 500 HPCC emails a day. 

Dr. Lindberg’s interest in visual thinking and dyslexia was evidenced when he asked me to be the after-dinner speaker at a meeting of NLM’s Board of Regents [2]. He accorded me the honor of describing the ideas I developed during my research and writing. I began my BOR speech with these words: 

“My talk this evening is about a return to visual thinking. My subtitle ‘new technologies, old talents and reversed expectations,’ encapsulates my main thesis - that as we begin to use the newest technologies in really powerful ways (which we have hardly begun), we will begin to tap into some of our oldest and most “primitive” neurological (visual spatial) talents. In so doing, we will begin to see ourselves and our world with very different eyes – leading, in time, to fundamentally different attitudes towards education and concepts of intelligence, as well as the skills and talents that are considered to be the most valuable. . . .” 

2. Advanced Applications 

At NLM in the late 1980s and early 1990s, I witnessed the rapid changes in computer systems happening worldwide. Dr. Lindberg seemed to be simultaneously interested in the newest technologies, and at the same time, he respected the insights and sophisticated knowledge of early researchers and traditional cultures. 

For example, one morning I chanced to attend another lecture in NLM’s Lister Hill Building. The speaker was a sleepy young computer programmer and software engineer. He had been up all night, as he said, releasing to the World Wide Web thousands of copies of a new computer program he and a coworker designed - called a ‘browser.’ 

As it turned out, it was ‘Mosaic,’ the first web browser of its kind. The young speaker was Marc Andreessen, then working at the National Center for Supercomputing Applications at the University of Illinois. Later, he became famous in the computer world for Netscape and the Silicon Valley venture-capital firm Andreessen Horowitz. Of course, these initiatives helped enable access to the Internet. They revolutionized mass communication - and I was privileged to see the very first day - primarily because of NLM and its forward-thinking director. 

3. Thinking Like Einstein on the Hokule’a 

During his career, Dr. Lindberg became known as a significant innovator in using computers for healthcare research and practice. Under his direction, NLM pioneered broad access to medical information with Medline and PubMed. But Don also promoted a deeper understanding of less well-known groups with programs such as ‘Women in Medicine’ and ‘Native Voices.’ 

‘Native Voices’ exemplified how Dr. Lindberg promoted the investigation of the traditional forms of medicine, widely ignored previously. In later years, I was thrilled to see that NLM played a significant role in a visit to Washington, D.C., during the round- the-world journey of the traditional Polynesian canoe, the Hokule’a - a double-hulled sailing canoe that enabled the early Polynesian peoples to travel among the islands of the broad Pacific Ocean. 

418 T.G. West / Personal Memories of Donald A.B. Lindberg M.D. 

I was delighted to see Dr. Lindberg’s interest in this area. Previously, I followed the renewed practice of traditional navigation methods and the significant influence of its rebirth in generating pride and reviving traditional Polynesian culture. Of course, the early traditional navigators used the stars and other natural signs. However, traditional navigators also taught themselves to feel long-distance ocean swells to maintain a heading - and how the absence of ‘shadow’ in these swells could indicate the presence of an island, out of sight, over the horizon. I wrote about these insights in my second book, Thinking Like Einstein [3]. Indeed, the intended full title for the second book was to have been: Thinking Like Einstein on the Hokule’a. 

Dr. Lindberg was well aware of how traditional cultures used visual abilities in highly sophisticated ways - with a minimum of technology and a sophisticated integration of profoundly understood natural forces. I was amazed and delighted when the Hokule'a tied up for several days at the Washington Canoe Club on the Potomac River in the middle of Washington, DC. Nainoa Thompson, the chief traditional navigator, gave a major talk at NLM about traditional navigation methods. 

Like Andreessen, NLM provided a stage for an important person (who was not well known outside of Polynesia) to provide fresh perspectives and ideas. In a way, both talks were so typical of Dr. Lindberg’s NLM. 

Moreover, I enjoyed several conversations with Nainoa at the Canoe Club, where he confirmed his special visual-spatial skills in traditional navigation probably were linked to his dyslexia. We talked about our everyday dyslexia experiences and the dyslexia of some family members. It all seemed to support the theory from Harvard neurologist and dyslexia researcher Norman Geschwind, M.D., who suggested the visual-spatial abilities often seen among dyslexics yielded an array of socio-cultural benefits [4]. 

4. Dr. Lindberg’s Prescient Leadership 

Over time, I saw how prescient Dr. Lindberg was in providing leadership during an era of enormous change and rapid progress. Don used his broad interests and deep understanding of the potential of computer systems in the service of medical knowledge and practice. 

One especially forward-looking conference was organized in mid-February 2000. At Dr. Lindberg’s direction. The ‘Visualization Research Agenda Meeting - The Impact of Visualization Technologies - Using Vision to Think’ considered how: ‘new visualization technologies are giving us new ways of seeing and understanding: bringing diverse worlds together, transforming the nature of education and work, redefining what we understand is talent and intelligence.’ The meeting focused on the implications of visualization technology for education and professional training, as well as how to build an appropriate research program. 

It was a small but diverse meeting with only 22 attendees. NLM’s participants included Dr. Lindberg, Alexa McCray, Michael Ackerman, and Steve Phillips. Other attendees represented: five institutes at the U.S. National Institutes of Health; two from the Smithsonian Institution; three from computer graphics organizations; and six persons with knowledge and experience regarding dyslexia, giftedness, and the brain’s evolution. 

Among those in attendance was Alvy Ray Smith, Ph.D., a strong advocate for the power of computer graphics in many spheres. Dr. Smith was one of the two founders of the Pixar Animation Studios in Emeryville, CA. Dr. Smith was a member of NLM’s Board of Regents and helped with the Visible Human Project and other related programs. 

T.G. West / Personal Memories of Donald A.B. Lindberg M.D. 419 

Other attendees included William J. Dreyer, Ph.D., California Institute of Technology, who provided a striking example of the power of dyslexic visual thinking in science and medicine. Dr. Dreyer had been a classic dyslexic when young; his reading, spelling, and arithmetic assessment scores were substandard. But having performed well on other tests, Dr. Dreyer went on to study biology - and gradually realized he could tell his professors what experiments to do and what the results would be. 

Previously, Dr. Dreyer revealed that his dyslexic imagination enabled him to visualize molecular biology and chemistry processes that led to a new and controversial theory about the human immune system. Dr. Dreyer espoused the theory for about 12 years - providing concepts based on data from instruments that he designed and built himself. However, Dr. Dreyer’s data was in a form so new and unconventional that almost everyone in his field could not understand what he was talking about. 

Years later, Dr. Dreyer was vindicated and proven correct. When Susumu Tonegawa was awarded a Nobel Prize (physiology or medicine, 1987) for work he had done in Switzerland, his innovative sequencing work demonstrated (through experiments that were illegal in the U.S. at the time) that Dreyer and his colleague’s predictions were correct. In the words of two scientific historians of this period: ‘This experiment marked the point of no return for the domination of the antibody diversity question by nucleotide studies: it was Susumu Tonegawa’s final proof of the Dreyer-Bennett V-C translocation hypothesis through the use of restriction enzymes’ [5]. 

Dr. Lindberg’s views on dyslexic insight were summarized in a quotation he kindly provided for the back cover of my third book, Seeing What Others Cannot See. 

‘West argues convincingly that dyslexics . . . seem to fail in elementary school learning while excelling at the broader level of graduate school. Many whose stories he recites were smashing successes in business. West urges that this is because of extra gifts in visual learning and thinking. He goes beyond praising dyslexics’ hidden strengths in visual thinking and learning, their ability to see what others cannot see - he demands that we stop hiding the imaginative strengths of all children under their weaknesses in reading.’ - Donald Lindberg, M.D., Director Emeritus, National Library of Medicine [6]. 

5. Markle Scholars in Academic Medicine, Fifty-Year Reunion 

A major conference where Dr. Lindberg and I were on program provided insights into the history of medical education. The 50th reunion of Markle Scholars in Academic Medicine occurred from September 17-19, 1998, in Phoenix, Arizona. 

Other speakers included: Gerald M. Edelman, Scripps Research Institute (Nobel Prize winner), and Howard Gardner, Harvard Graduate School of Education (MacArthur Prize winner). Markle Scholars were professors identified by their medical school deans as the best teachers in the U.S. and Canada for several decades after World War II. 

In my talk, I spoke primarily about visual thinking among creative scientists and some then-recent developments in computer graphic technologies. However, I also mentioned how visual thinking and associated innovation sometimes were linked to dyslexia and other related learning differences. 

Remarkably, during the three-day conference, many (nearly one half of the attendees and their spouses) spoke to me about their dyslexia (two surgeons from Johns Hopkins, for example) or told stories of dyslexia among their family members or their more creative and innovative coworkers. 

420 T.G. West / Personal Memories of Donald A.B. Lindberg M.D. 

As I look back, I am enormously grateful for the privilege of knowing Dr. Lindberg and his wife, Mary. Rightly, it is now often said both presided over the Golden Age of the National Library of Medicine. 

Dr. Lindberg’s vision was broad and deep, often including early consideration of diverse topics that only later became evident within the mainstream. Don took over a massive medical library primarily designed to serve various medical specialists - and using the newest technologies, he pushed the boundaries to serve the nation and, eventually, the world. 

References

.    [1]  West TG. In the mind’s eye, creative visual thinkers, gifted dyslexics and the rise of visual technologies. 1st ed. Amherst, NY.: Prometheus Books; 1991. 3rd Ed. Lanham, MD.: Rowman & Littlefield Publishing Group; 2020. 

.    [2]  West TG. A return to visual thinking: new technologies, old talents and reversed expectations. Bethesda, MD.: NLM Board of Regents Meeting; May 26, 1993. 

.    [3]  West TG. Thinking like Einstein: returning to our visual roots with the emerging revolution in computer information visualization. Amherst NY.: Prometheus Books; 2004. 

.    [4]  Geschwind N, Galaburda AM. Cerebral lateralization: biological mechanisms, associations, and pathology. Cambridge, MA.: The MIT Press; 1987, p. 97-104. 

.    [5]  Tauber, AI, Podolsky SH. The generation of diversity: clonal selection theory and the rise of molecular immunology. Cambridge, MA.: Harvard University Press; 1997, p. 207. 

.    [6]  West TG. Seeing what others cannot see: the hidden advantages of visual thinkers and differently wired brains. Amherst, NY.: Prometheus Books; 2017. 

 

*******************************************************

 

APPENDIX B

 

Foreword with Selected Reviews and Comments -- T. G. West 

 

Foreword to the Second Edition of In the Mind’s Eye

by Oliver Sacks, M.D.

 

“Although, as a neurologist, I sometimes see cases of alexia—the loss of a previously existing ability to read, usually caused by a stroke in the visual areas of the brain— congenital difficulties in reading, dyslexias, are not something I often encounter, especially with a mostly geriatric practice such as my own. Thus I have been particularly fascinated—sometimes astonished—by the wide range of considerations which Thomas G. West has brought together in this seminal investigation of dyslexia, In the Mind's Eye.  

 

“People with dyslexia are often regarded as defective, as missing something—a facility in reading or linguistic thinking—which the rest of us have. But those of us who are predominantly verbal or ‘lexical’ thinkers could just as well be thought of as ‘avisuals’ [defective in visual thinking]. There may indeed be a sort of reciprocity between lexical and visual powers, and West makes a convincing argument that a substantial section of the population, often highly intelligent, may combine reading problems with heightened visual powers, and are often adept at compensating for their problems in one way or another—even though they may suffer greatly at school, where so much is based on reading. Some of our greatest scientists and artists would probably be diagnosed today as dyslexic, as West shows in his profiles of Einstein, Edison, da Vinci, Yeats, and others. West himself is dyslexic — this, no doubt, has strongly influenced his life and research interests, but it also gives him a uniquely sympathetic understanding of dyslexia from the inside as well as the outside.

 

“My own experience seems to be in the opposite camp—I learned to read very early, and my own thinking is largely in terms of concepts and words. I am rather deficient in visual imagery, and have a great deal of difficulty recognizing places and even people. When I met Temple Grandin, the autistic animal psychologist who is clearly a visual thinker (one of her books is titled Thinking in Pictures), she was taken aback when I said I could hardly visualize anything: ‘How do you think?’ she asked. Grandin herself has very heightened spatial and visual imagination, and thinks in very concrete images.

 

“The idea of compensation for various neurological ‘deficits’ is well supported by neuroscientific studies, which have shown, for instance, that people blind from birth have heightened tactile, auditory, and musical powers, or that congenitally deaf people who use sign language have heightened visual and spatial capacities, and perhaps a special attunement to facial expression. People with dyslexia, similarly, may develop various strategies to compensate for difficulties in reading. They are often very highly skilled at auditory comprehension or memorization, at pattern recognition, complex spatial reasoning or visual imagination. Such visual thinkers, indeed, may be especially gifted and vital to many fields; among them may well be the next generation of creative geniuses in computer modeling and graphics.

 

“In the Mind's Eye brings out the special problems of people with dyslexia, but also their strengths, which are so often overlooked.  Its accent is not so much on pathology as on how much human minds vary. It stands alongside Howard Gardner's Frames of Mind as a testament to the range of human talent and possibility.”

 

Oliver Sacks, M.D., January 2, 2009. Dr. Sacks, a British neurologist residing in the US, is most widely known for his book Awakenings (1973) that was made into a film of the same name starring Robin Williams and Robert De Niro. Also well known are his books An Anthropologist from Mars (1995), Seeing Voices: A Journey into the Land of the Deaf (1989) and The Man Who Mistook His Wife for a Hat(1985). His most recent book is titled The Mind’s Eye (2010). The late Dr. Sacks was professor of clinical neurology and clinical psychiatry at Columbia University College of Physicians and Surgeons and maintained a private practice in New York City. Sacks considered that his literary style followed the tradition of 19th-century “clinical anecdotes,” a style that focuses on informal case histories, following the writings of Alexander Luria. One commentator noted that Sack’s work has been featured in a “broader range of media than those of any other contemporary medical author.” The New York Timessaid that Sacks “has become a kind of poet laureate of contemporary medicine.” 

 

APPENDIX B – alternative version to replace – perhaps?

Foreword and Selected Reviews and Comments -- T. G. West  

Foreword to the Second Edition of In the Mind’s Eye

by Oliver Sacks, M.D.

“Although, as a neurologist, I sometimes see cases of alexia—the loss of a previously existing ability to read, usually caused by a stroke in the visual areas of the brain— congenital difficulties in reading, dyslexias, are not something I often encounter, especially with a mostly geriatric practice such as my own. Thus, I have been particularly fascinated—sometimes astonished—by the wide range of considerations which Thomas G. West has brought together in this seminal investigation of dyslexia, In the Mind's Eye.  

“People with dyslexia are often regarded as defective, as missing something—a facility in reading or linguistic thinking—which the rest of us have. But those of us who are predominantly verbal or ‘lexical’ thinkers could just as well be thought of as ‘avisuals’ [defective in visual thinking abilities]. There may indeed be a sort of reciprocity between lexical and visual powers, and West makes a convincing argument that a substantial section of the population, often highly intelligent, may combine reading problems with heightened visual powers, and are often adept at compensating for their problems in one way or another—even though they may suffer greatly at school, where so much is based on reading. Some of our greatest scientists and artists would probably be diagnosed today as dyslexic, as West shows in his profiles of Einstein, Edison, da Vinci, Yeats, and others. West himself is dyslexic — this, no doubt, has strongly influenced his life and research interests, but it also gives him a uniquely sympathetic understanding of dyslexia from the inside as well as the outside.

“My own experience seems to be in the opposite camp -- I learned to read very early, and my own thinking is largely in terms of concepts and words. I am rather deficient in visual imagery, and have a great deal of difficulty recognizing places and even people. When I met Temple Grandin, the autistic animal psychologist who is clearly a visual thinker (one of her books is titled Thinking in Pictures), she was taken aback when I said I could hardly visualize anything: ‘How do you think?’ she asked. Grandin herself has very heightened spatial and visual imagination, and thinks in very concrete images.

“The idea of compensation for various neurological ‘deficits’ is well supported by neuroscientific studies, which have shown, for instance, that people blind from birth have heightened tactile, auditory, and musical powers, or that congenitally deaf people who use sign language have heightened visual and spatial capacities, and perhaps a special attunement to facial expression. People with dyslexia, similarly, may develop various strategies to compensate for difficulties in reading. They are often very highly skilled at auditory comprehension or memorization, at pattern recognition, complex spatial reasoning or visual imagination. Such visual thinkers, indeed, may be especially gifted and vital to many fields; among them may well be the next generation of creative geniuses in computer modeling and graphics.

“In the Mind's Eye brings out the special problems of people with dyslexia, but also their strengths, which are so often overlooked. Its accent is not so much on pathology as on how much human minds vary. It stands alongside Howard Gardner's Frames of Mind as a testament to the range of human talent and possibility.”

-- Oliver Sacks, M.D., January 2, 2009. The late Dr. Sacks, a British neurologist who resided in the US, is most widely known for his book Awakenings (1973) that was made into a film of the same name starring Robin Williams and Robert De Niro. Also well-known are his books An Anthropologist from Mars (1995), Seeing Voices: A Journey into the Land of the Deaf (1989) and The Man Who Mistook His Wife for a Hat (1985). A later book is titled The Mind’s Eye (2010). 

Dr. Sacks was professor of clinical neurology and clinical psychiatry at Columbia University College of Physicians and Surgeons and maintained a private practice in New York City. Sacks considered that his literary style followed the tradition of 19th-century “clinical anecdotes,” a style that focuses on informal case histories, following the writings of Alexander Luria. One commentator noted that Sack’s work has been featured in a “broader range of media than those of any other contemporary medical author.” The New York Times said that Sacks “has become a kind of poet laureate of contemporary medicine.” 

 

Selected Reviews and Comments -- In the Mind’s Eye

“The computer is the most malleable tool we’ve ever invented. The Turing revolution, which brought it to us, has proceeded over its 60-year history to absorb field after field of human endeavor. First was simple number crunching. Then text processing, table making, pie charting, data basing, and a host of other, more sophisticated fields have gone digital with the new tool as human brain amplifier. Visualization is the latest domain to become ‘ordinary’ this way. Tom West argues that the legitimacy of visualization as a first-order attack on problem solving is therefore being established after generations of quiet use by only some creators -- and some of the best at that. He claims that visualization is not only a legitimate way to solve problems, it is a superior way: the best minds have used it. West urges us to join the dyslexics of the world and use pictures instead of words. In the process we get fascinating glimpses of how other minds have worked -- minds that have changed the world.”

-- Alvy Ray Smith, PhD, electronic mail message of November 20, 1996. Dr. Smith was co-founder of Pixar Animation Studios, former Director of Computer Graphics at Lucasfilm, Ltd., and Graphics Fellow, Advanced Technology, Microsoft Corporation. At Pixar, he formed the team that proceeded to create Tin Toy, the first 3-dimensional computer animation ever to win an Academy Award. This team later produced the first completely computer-generated motion picture, Toy Story. At Microsoft, he designed the multimedia authoring infrastructure for Microsoft third party developers and content producers. While he was a Regent for the National Library of Medicine, he was instrumental in inaugurating the Visible Human Project. 

Dr. Smith has recently released a new book, A Biography of the Pixel, which provides a detailed history of how pixel-based images have come to dominate all aspects of the modern world. “The Great Digital Convergence of all media types into one universal digital medium occurred, with little fanfare, at the recent turn of the millennium. The bit became the universal medium, and the pixel -- a particular packaging of bits -- conquered the world.” (From the publisher, MIT Press, August 2021.)

“I would like to thank you for the copy of your book . . . which I read with considerable interest. I wasn’t aware, and I am enormously proud that I share my learning problems with such distinguished characters as Albert Einstein, Michael Faraday, James Clerk Maxwell, Sir Winston Churchill, Gen. George Patton and William Butler Yeats. I found your detailed analysis of the various deficiencies very informative and I think your book is a real contribution to the field.”

-- Baruj Benacerraf, M.D., letter of August 5, 1994. The late Dr. Benacerraf was Fabyan Professor of Comparative Pathology, Emeritus, Harvard Medical School and was past President of the Dana-Farber Cancer Institute, Boston. A Nobel laureate for discoveries in immunology (1980 Nobel prize in Physiology or Medicine), Dr. Benacerraf was recognized as a distinguished dyslexic in 1988, receiving the Margaret Byrd Rawson Award from the National Institute of Dyslexia. Together with his life-long difficulties with reading, writing and spelling, he observed that he (along with other family members) has a special facility with visualizing space and time--an ability that he believes contributed greatly to his scientific research and discoveries.

“I want you to know that reading your book and the conversations we had at the SIGGRAPH [computer graphics] conference were pivotal in the history of our project. We rewrote much of our material based on insights gained from your book. Previously, we had not realized fully how central the role of visualization was to what we were trying to do. We were already on the right path without really knowing it. . . . In our project CALCULUS & Mathematica, we have learned the effectiveness of teaching the concepts visually using graphic software prior to verbal explanations. Our students have gained a deeper understanding of the subject and they can recall and apply the material long afterward, which is rare for students taught with conventional methods.”

-- Dr. J. Jerry Uhl, Department of Mathematics, University of Illinois at Urbana-Champaign, telephone conversation of September 29, 1993. The late Dr. Uhl was active in the National Science Foundation-sponsored reform of calculus teaching at the university level. With W. Davis and H. Porta, he was author of the interactive courseware, CALCULUS & Mathematica (Addison-Wesley, 1994), using high-level, general-purpose mathematics software along with graphic computers. Initially viewed as radical, the innovative approaches used in this courseware have been widely adopted and are now in use by many modern calculus courses and textbooks. 

“Unfortunately, I did not discover this wonderful book [In the Mind’s Eye by Thomas G. West] before I wrote Thinking in Pictures several years ago. I recommend it to teachers, parents and education policymakers. West profiles people with dyslexia who are visual thinkers, and his conclusions on the link between visual thinking and creativity are similar to mine.”

-- Dr. Temple Grandin, “The List,” The Week magazine, March 3, 2006, describing why she has included In the Mind’s Eye on her list of her six favorite books. 

“Dear Tom: Thanks for sending me your epilogue [to the second edition of In the Mind’s Eye].  It was wonderful. I think that visual thinking in both autism/Asperger and dyslexia are very similar. Your descriptions match the descriptions I get from people on the autism spectrum. I share your concern that educators do not understand the creative visual thinking mind.  I give talks to parents and teachers all the time and I emphasize that they need to develop a child's strengths. I am really pleased that you are going to use my quote.  I love the Oliver Sacks foreword. Sincerely, Temple Grandin”

-- Email of August 17, 2009. Dr. Grandin is a professor of animal science and is author of the memoir Thinking in Pictures (dealing with her life with autism) and the best-selling book Animals in Translation. An HBO cable TV film based on Grandin’s life debuted February 6, 2010, starring Claire Dane. The film received overwhelmingly positive reviews -- being nominated for 15 Emmy Awards and winning seven. 

“Perhaps when we encounter the prodigious gifts in someone who masters different mediums, someone such as Michelangelo, what we are seeing is the rare convergence of spatial and object thinking in the mind of a genius. According to Thomas G. West in his book In the Mind’s Eye, Leonardo’s abilities as a visual spatial thinker were so vast that he anticipated scientific and technological advances by a hundred[s of] years in the areas of anatomy, physiology, mechanical engineering, and astronomy. West writes, ‘Visual spatial talents are, in some important cases, indispensable for the highest levels of original work in certain areas of science, engineering, medicine and mathematics.’ Other sculptors rejected the marble that Michelangelo used to carve the David. He saw the statue inside it.”

– Temple Grandin, Visual Thinking: The Hidden Gifts of People Who Think in Pictures, Patterns, and Abstractions, Riverhead Books, Penguin Random House, 2022, pp. 173-174. 

“Thomas West brings to life the fascinating capacities and syndromes that arise from our visual-spatial imagination. His book proves beyond doubt that we are not all points on a single bell curve of intelligence.”.

-- Howard Gardner, PhD, letter of October 15, 1996. Dr. Gardner is author of many books, including Frames of Mind: The Theory of Multiple Intelligences (Basic Books, 1983) and Intelligence Reframed: Multiple Intelligences for the 21st Century (Basic Books, 1999). A MacArthur Prize Fellow, he is affiliated with Harvard University Graduate School of Education, Boston University School of Medicine and Boston Veterans Administration Medical Center.

 “Thanks so much for sending the material. . . . There is a lot of overlap in points we have both been making for years. I have often argued in my public talks that the graduate education process that produces physicists is totally skewed to selecting those with analytic [mathematical] skills and rejecting those with visual or holistic skills. I have claimed that with the rise of scientific visualization as a new mode of scientific discovery, a new class of minds will arise as scientists. In my own life, my ‘guru’ in computational science was a dyslexic and he certainly saw the world in a different and much more effective manner than his colleagues. . . .”

-- Dr. Larry L. Smarr, Director of the National Center for Supercomputing Applications and Professor of Physics and Astronomy at the University of Illinois, electronic mail message of August 6, 1994. With W.J. Kaufmann, Larry Smarr is author of Supercomputing and the Transformation of Science, Scientific American Library, W.H. Freeman and Company, 1993. 

“There is a great deal in this book which is pertinent to the study of the highly able. The author points out that this century’s focus on what is normal, and pushing children towards those norms, may have obscured an understanding of the high degree of individual differences, masking many forms of giftedness which then may go undetected. He urges us to cultivate these awkward individuals for their unusual gifts to improve creativity in the sciences as well as the arts. West’s weave of case studies and ideas to promote his arguments is intriguing and convincing. If what he says is true, then the waste of high ability is very much worse than we might have thought. But using his reasoning, if we were to change our educational outlook to a more positive and humane one, then millions more children would be enabled to develop into creative, productive, and fulfilled adults.”

-- Review by Joan Freeman, European Journal for High Ability, vol. 4, no. 2, 1993. 

“The original title is In the Mind’s Eye. The Japanese title Geniuses Who Hated School is a wildly different translation. However, people who are considered geniuses may have great powers of visual thought. . . . There is a possible relationship between the great visual thinker and the poor reader or math student. . . .  Many visual thinkers have trouble adjusting to conventional education systems. This is the logic behind the two titles. . . . [The author] raises . . . an important question, asking us to look again at what are fundamental abilities in a time when computers can do the simple work in place of humans and to reconsider the educational system while keeping in mind the variety of human brains that exist.”

-- Review in Kagaku Asahi, the monthly Japanese science magazine, August 1994, p. 92. Review translated by Yoshiko G. Doherty.

“Every once in a while a book comes along that turns one’s thinking upside down. In the Mind’s Eye is just such a book. . . .   What is unique about West’s essay is that he weaves . . . disparate areas together to show that technological change is affecting what we value as intelligence.”

-- Roeper Review, Vol. 15, No. 1, September 1992, p. 54.

 

_____________________________________________________________

 

APPENDIX C

 

Selected Text Slides

On Visual Thinking and the Strengths of Dyslexics

Selected Text Slides Used in Recent Talks by Thomas G. West.

Most of West’s talks are made up of images, and sometimes video clips, which he discusses in an informal manner. However, some key points work better by discussing short text slides – a few of which are provided below.

*****************

• Some want to teach mainly reading in order to bring dyslexics up to normal levels with “basic skills.” 

• But, instead, others want to study the dyslexic “super stars” to learn how they did it. Indeed, how similar they are to ourselves.

• Studying success, we hope to learn things that are useful to dyslexics and others, especially in a rapidly-changing global technological and economic context with massive digital data, high speed links, “deep learning” and AI.

• “Basic skills have no market value.” (Norbert Weiner, author, Cybernetics, 1948.)

******************

• Many dyslexics and strong visual thinkers seem poorly adapted to the old technologies of words and books, memorizing old knowledge. 

• But many seem perfectly adapted to the new technologies of complex information visualized in computer graphic images and simulations, creating new knowledge, seeing patterns that others cannot see.

• We need to find ways to help students identify and employ their distinctive capabilities. Look to the highly successful. What to teach. How to teach. 

*****************

Often Nobel Prize winners seem to immediately understand what we are talking about when discussing visual thinking, visual technologies, dyslexia and the advantages of seeing things differently in 3D space. 

Many school psychologists and conventional educators do not. Often they are trained to design courses and standardized tests that ignore or discourage seeing things differently.  

***************

Tell the Young Dyslexics

• Time is on your side. All the things you have had trouble with are becoming less and less important. All the things you are good at are becoming more and more important. (See recent EY business consultant reports saying employers now want dyslexic talents and skills.)

• Machines are now doing the reading and rapid recall and clerical tasks. Humans should not to do machine work. Rather, humans need to visualize, see the big picture, understand, recognize patterns, consider slowly and ponder what it all means, where to go and how to get there. (Shows the decreasing value of narrow specialist PhD training and career paths -- as basic things change and then change again.)

**************

Samuel Torrey Orton, MD, in his 1925 paper on “Word Blindness”

• In Iowa, Dr. Orton organized Mobile Psychiatric Units (Dr. Orton, a strong visual thinker, almost trained to became an engineer.)
• He requested to see those “failing in their school.” (142 were referred.)
• Patient MP, 16, had an “inability to read.” But Orton could see that he was very bright. 
• Orton wrote: “the Stanford-Binet method [then in 1925 a new test of “IQ”] . . . did not do justice to the boy’s mental equipment. . . . The test is inadequate to gauge . . . facile use of visual imagery of . . . complex type . . . [the boy had] good visualizing power . . . his replies were prompt and keen.” 

**************

Recent trends, broad implications, now reversing talents -- 

“Until the 1960s, a student in an American engineering school was expected by his teachers to use his mind’s eye to examine things that engineers had designed, to look at them, listen to them, walk around them and thus develop an intuitive feel for the way the material world works and sometimes doesn’t work. 

“By the 1980s, engineering curricula had shifted to analytical [mainly mathematical] approaches, so that visual and other sensual knowledge of the world seemed less relevant. As faculties dropped drawing and shop practice from their curricula and [professors] deemed plant and factory visits unnecessary, working knowledge of the material world disappeared from faculty agendas and therefore from student agendas, and the nonverbal, tacit, and intuitive understanding essential to engineering design atrophied.” 

-- Eugene S. Ferguson, Engineering and the Mind’s Eye, the MIT press, 1992.

*****************

Desire for New Tests and Measures

As I told a group of young dyslexic students: “We need to develop a new series of tests where the dyslexics will get the top score and the non-dyslexics will get the bottom score.” I had not been sure how many had been paying close attention. But to my surprise, my assertion brought spontaneous and enthusiastic applause. Their reaction tells us a lot about what they have been through – and how much they hunger for recognition of the things that they can do well.

***************

• Stories: We should listen to individual stories in depth first, then collect data. As a good medical history tells you what to look for and what to measure and what data to collect. Anecdotes, personal and family histories, may lead to treasures of understanding.

• Sometimes we count the wrong things. Many dyslexic talents are invisible to conventional tests and measures. (So the resulting data and research may appear to be solid and scientific. But, instead, the “hard data” might actually confirm errors and misunderstandings -- wrongly seen as if they were facts, or may entirely miss the point.) Diversity is not a pathology.

• Many talk of a “scientific survey.” In old science: researchers want to generalize based on large populations. Small groups and percentages do not matter, they say. However, in new science: Small percentages do matter. Individuals matter. Differences matter. Nano scales matter. There is sensitivity to initial conditions. Individuals are the new focus of “precision medicine.” Recognizing the power of the small.

*******************

Dyslexia, visual thinking, thinking in 3D space and visual technologies: varied levels of interest have been observed in these ideas and concepts while giving talks in the US and 14 countries over more than 25 years.

• Nobel Prize winners and high-level, creative scientists are often the most  interested; conventionally trained educators and school psychologists are usually not interested.

• Groups that are interested are: NASA Ames Research Center, the Max Planck Institutes in Germany, Oxford and Cambridge University researchers in England, the U.S. National Library of Medicine-NIH, the Dyslexia Association of Singapore, GCHQ code breakers in the UK and Hong Kong medical doctors. These are practitioners, innovators, discoverers, practical users who often learn from their own personal experience and observations.

• Many conventional tests and measures do not capture these talents. Need new tests. How to recognize and develop high potential . . . How to show the way. . . For dyslexics, and for other different thinkers, for all of us -- to show the path, innovating for major problems, especially in a new digital age of AI . . .

• Concerning any really revolutionary discovery in science and technology: When you seek the origins of these most unexpected and most original discoveries, you should not be surprised to find a dyslexic. Because they are perhaps less full of previously memorized knowledge and conventional patterns of thought and mostly think in pictures, often the dyslexics can observe closely with an open mind and can see what others cannot see. Especially an advantage for Nobel Prize winners, of course – because they must, almost by definition, see things differently than conventional scientific thinkers.

_____________________________________________________________

APPENDIX D

 

Commentary, Selected Publications and Readings

On Visual Thinking, Strengths of Dyslexics and Artificial Intelligence (AI)

An early commentary: 

 

Walker, Darren, and Hemant Taneja, March 30, 2023. “Build AI Guardrails Before We Crash,” Washington Post, page A23. This editorial page opinion piece in the Post is just one among a rapidly growing number of articles, group letters and other indicators of serious concerns about the extremely rapid growth and increasingly widespread use of new AI systems like ChatGPT and other similar systems. An excerpt: “The artificial intelligence revolution has arrived. . . . We see leaders in every field placing bets, by the billions, on what comes next. . . . The time has come for new rules and tools that provide greater transparency on both the data sets used to train AI systems and the values built into their decision-making calculus. We are also calling for more action to address the economic dislocation that will follow the rapid redefinition of work.” -- Darren Walker is president of the Ford Foundation and author “From Generosity to Justice: A New Gospel of Wealth.” Hemant Taneja is CEO of General Catalyst and the author of “Intended Consequences: How to Build Market-Leading Companies with Responsible Innovation.” 

 

Publications and Readings

 

Eide, Brock, and Fernette Eide, 2023. The Dyslexic Advantage: Unlocking the Hidden Potential of the Dyslexic Brain. Revised and updated edition. Penguin Random House, New York, USA.

Fawcett, Angela, and Rod Nicolson, 1994. Dyslexia in Children, Routledge, London, UK. 

Nicolson, Rod, 2015. Positive Dyslexia. Rodin Books, Sheffield, UK. 

West, Thomas G., 1991. In the Mind’s Eye, Prometheus Books, Amherst, New York, USA.

 

West, Thomas G., 1992. “A Future of Reversals: Dyslexic Talents in a World of Computer Visualization,” Annals of Dyslexia, Orton Dyslexia Society, vol. 42, pp. 124-139. 

 

West, Thomas G., 1994. “A Return to Visual Thinking.”  In Proceedings, Science and Scientific Computing: Visions of a Creative Symbiosis. Symposium of Computer Users in the Max-Planck-Gesellschaft, edited and translated by P. Wittenberg and T. Plesser. Gottingen, Germany, November 1993. (Paper published in German: Ruckkehr zum visuellen Denken, Forschung und Wissenschftliches Rechnen: Beitrage anlasslich des 10. EGV-Benutzertreffens der Max-Planck-Gesellschaft in Gottingen, November 1993.)

 

West, Thomas G., 1999. “The Abilities of Those with Reading Disabilities: Focusing on the Talents of People with Dyslexia.” Chapter 11, Reading and Attention Disorders: Neurobiological Correlates. Edited by Drake D. Duane, MD, Baltimore, MD: York Press, Inc. 

 

West, Thomas G., 2004. Thinking Like Einstein: Returning to Our Visual Roots with the Emerging Revolution in Computer Information Visualization. Amherst, NY: Prometheus Books. 

 

West, Thomas G., 2005. “The Gifts of Dyslexia: Talents Among Dyslexics and Their Families,” Hong Kong Journal of Paediatrics (New Series), 10, 153-158. 

 

West, Thomas G., 2009. In the Mind’s Eye: Creative Visual Thinkers, Gifted Dyslexics and the Rise of Visual Technologies. Second edition. Amherst, NY: Prometheus Books, distributed by Penguin Random House. (The second edition of In the Mind’s Eye includes a Foreword by the late Oliver Sacks, MD, who said “In the Mind’s Eye brings out the special problems of people with dyslexia, but also their strengths, which are so often overlooked. . . . It stands alongside Howard Gardner's Frames of Mind as a testament to the range of human talent and possibility.”)

 

West, Thomas G., 2014. “Amazing Shortcomings, Amazing Strengths: Beginning to Understand the Hidden Talents of Dyslexics,” Asia Pacific Journal of Developmental Differences, Vol. 1, No. 1, January 2014, pp. 78-89. A publication of the Dyslexia Association of Singapore (DAS). DAS initiated a multi-year program “Embrace Dyslexia,” intended to take advantage of the distinctive talents of dyslexic children and adults, as a form of economic competitive advantage. Long a leader in technology and commerce, Singapore intends to lead the world in this effort as well. In November 2014, Thomas G. West visited Singapore for a week to give five talks as part of the kick-off for the “Embrace Dyslexia” program.

West, Thomas G., 2022. “Dyslexic Talents in Times of Adversity.” Asia Pacific Journal of Developmental Differences. Vol. 9, No. 2, July 2022, pp. 194-203. Based on the June 2020 graduation talk given at The Siena School, Silver Spring, Maryland.

This is a short version of an archive listing with selected examples -- including appendices A-D. It is a preliminary draft with alternative revisions and additions included from time to time. Most recent revisions November 2024 and January 2025. To date, the long version of the archive listing includes 168 total pages; 45 numbered descriptions of documents, media, presentations and events; with 7 appendices, labelled A to G.

This is the end of a short 35-page draft providing samples selected from some 168 total pages of listings to date. -- Thomas G. West

Emails: thomasgwest@gmail.com and thomasgwest@aol.com

Personal blog: inthemindseyedyslexicrenaissance.blogspot.com

Mobile: 202 262 1266

 

*****

 

Section below added in January 2025 – Related to Our Discussions

 

Frank Tallman – A Re-Post from Tom West’s Personal Blog

 

I have been reading the book about flying the old airplanes written by my mother's first cousin, Frank (Gifford) Tallman. So I thought I would re-post here some sections from his sister's book and some family letters about Frank's apparent dyslexia-related problems as a young student. – TGW

 

Recently, I was talking to a farmer friend about low flying planes used to spray wheat fields to ensure the full development of the crop. This made me think of the low-level flying and film stunts of Frank G. Tallman -- a master pilot -- who was also dyslexic –- perhaps a master pilot because he was dyslexi(as I had guessed years before). Note the stories below -- and what his parents thought about him and his schoolwork when he was young. – TGW

 

“April 20, 1978. The first plane roared low over the ridge. Five hundred people looked up, many through tears. They recognized the red and white stripes of the famous Super Chipmunk as it soared past, trailing pink smoke into the clear, southern California sky. The crowd had come from the church in a mile-long line of cars and now stood around my brother’s open grave, to me an abyss on this green and windblown hillside. Following the smoke trail, pairs of planes from every decade of aviation history thundered overhead in further salute to Frank Tallman, who had flown them all. Corsairs, Mustangs, Zeros, jets, an all-red Fokker Triplane. Frank’s comrades flew them today. 

 

“A flight of police helicopters was up there too in the V-shaped missing man formation, their own salute to the improbable man called ‘king of the Hollywood stunt pilots.’ My other brother, Foster, was standing beside me. ‘Those older planes came down to fifty feet,’ he said. ‘I looked one guy right in the face. They violated about every federal air regulation known to man but who’s going to complain?’ After the ceremony, while the crowd drifted away, I lingered behind with my hands on the casket. Foster smothered his own grief and took hold of my arm. ‘Come on Sis,’ Foster said, ‘it’s all over.’ But it never was. Not for Foster and me.” 

 

-- Excerpt above from “Where the Birds Warble Sweet” by Prudy Tallman Wood, younger sister of Frank Gifford Tallman, unpublished manuscript given to TGW.

 

Family letters --

 

“Of course I am sincerely worried and most upset over Frank. Have just told him he has to stay in [school] and graduate if it takes forty years.” -- Frank’s mother, October 1934.

 

“I agree to some extent young Frank lacks fundamental training but do not feel this [is] the main difficulty -- rather as you say it is his lack of ability for self-help and work. . . . I have a feeling this boy lives in a dream world made up of guns and aeroplanes and ‘movies’ and that no way yet has been found to bring him down to earth so that he will realize there is work to do and responsibility that he must assume.” -- Frank’s father, October 1934; former WWI pilot. (Frank’s age 15, grade 9)

 

“[Frank’s teachers] seem to be looking for some reason why such an apparently able and thoroughly engaged student could perform so poorly. . . . I suppose he might have been diagnosed with a dyslexia of some kind today. The fact that foreign languages and math seem to have given him the most trouble, indicate something like that to me.” -- School historian, December 2000.

 

Copies of family letters and school reports, above, were provided to Thomas G. West by Frank Tallman’s sister Prudy Tallman Wood.

 

“Frank Tallman is in town to promote the new film ‘The Great Waldo Pepper.’ But no film could be as interesting or as charming as Frank Tallman.” Washington Post interview and film review, (paraphrase) 1975. 

 

Excerpts from Wikipedia --

 

“Tallman performed the stunt flying in the 1963 chase movie ‘It's a Mad, Mad, Mad, Mad World,’ including the flight in a Beechcraft Model 18 through a Coca-Cola billboard. He also contributed to The ‘Carpetbaggers’ (1964), ‘The Wrecking Crew’ (1969), and ‘The Thousand Plane Raid’ (also 1969) . . . . He served as the flying supervisor for ‘Catch-22’ in 1970 and was personally involved in locating and acquiring the 18 or so flyable film unit B-25s appearing in the film. Tallman flew the dramatic night shots of the Milo Minderbinder Air Force B-25 bombing its own base just over the heads of actors Jon Voight and Martin Sheen. . . . 

 

“He was aerial supervisor for ‘The Great Waldo Pepper’ in which he performed barnstorming stunts. When the controls failed in his World War I aircraft replica, the plane went out of control and struck power lines. Tallman suffered a head injury. . . . "In 1973, Tallman recounted his experiences rebuilding and flying vintage aircraft in the book 'Flying the Old Planes'. . . .”

 

“On Saturday 15 April 1978, Tallman was making a routine ferry flight in a twin-engine Piper Aztec from Santa Monica Airport, California, to Phoenix, Arizona, under visual flight rules when he continued the flight into deteriorating weather, a lowering ceiling and rain. He struck the side of Santiago Peak in the Santa Ana Mountains near Trabuco Canyon at cruise altitude, dying in the ensuing crash [apparently from a fatal heart attack while flying]. Following his death, Tallman's historic collection of movie warplanes and camera planes was sold off.” [Many to a museum in Florida.]