Capítulo 1
The Creative Spark: How Human Minds Reshape Reality
What do NASA engineers and Pablo Picasso have in common? Both faced seemingly impossible challenges-saving stranded astronauts 200,000 miles from Earth and revolutionizing Western art-yet succeeded through identical cognitive processes. This fascinating connection forms the heart of "The Runaway Species," a groundbreaking collaboration between composer Anthony Brandt and neuroscientist David Eagleman that has become required reading in innovation courses at Stanford, Harvard, and MIT. The book reveals how our brains constantly generate "what-if" versions of reality, transforming the raw materials of experience into everything from smartphones to symphonies. As we transition from an information economy to a creativity economy, understanding these mental mechanisms becomes crucial. The book's insights have influenced corporate innovation strategies at companies like Google and IBM, while educators use its principles to nurture rather than stifle children's natural creative capacities. Through examining human inventions like paleontologists study fossils and applying insights from brain science, Brandt and Eagleman reveal the essential creative software running in all our minds.
Capítulo 2
The Restless Human Mind
Look at hairstyles, bicycles, and stadiums around you - they're constantly changing. Why can't we find the perfect solution and stick with it? Because innovation never stops. It's never about finding the right thing; it's about discovering the next thing. The human brain is restlessly creative, always leaning into the future without ever settling.
Commercial flight, once an unthinkable adventure, now barely raises an eyebrow. As Louis C.K. jokes about passengers complaining about delays: "New York to California in five hours. That used to take thirty years. Plus, you would die." When in-flight wifi briefly fails, a passenger angrily exclaims "This is bullshit!" - demonstrating how quickly new technology becomes expected.
This rapid normalization happens with everything - smartphones, revolutionary art, and corporate redesigns. It's driven by repetition suppression: when your brain encounters something new, it shows a large response, but with each subsequent exposure, the response diminishes. The brain becomes more efficient by predicting familiar patterns, saving valuable energy.
Yet despite craving predictability, we also hunger for novelty. Perfect predictability breeds indifference - which explains why bestselling books from 1945 are now forgotten, why Bill Murray in "Groundhog Day" rebels against repetition, and why jokes need three characters (the third breaking the pattern established by the first two). Surprise engages us, delivering more reward to our brains than predictable experiences.
Unlike zombies who operate on automated behaviors, humans possess both automated and mediated thinking. While honeybees function with one million hard-wired neurons passing signals like bucket brigades, our hundred billion neurons - particularly those between sensation and action - allow us to consider alternatives before responding.
We have automated behaviors (walking, typing) that become streamlined into habits, but our massive "uncommitted" neurons enable mediated behaviors: understanding poetry, navigating difficult conversations, and generating novel solutions. Rather than push-button responses, our neural activity resembles parliamentary debate, forming coalitions before reaching conscious awareness.
Humans constantly simulate possible futures - a key function of intelligent brains. We mentally rehearse scenarios (confronting a boss, choosing dinner, selecting housing) to prepare for alternatives without physically testing each one. This capacity for generating "what-ifs" distinguishes cognitively modern humans.
Contrary to the myth of the isolated artist, creativity thrives through social connection. Even Vincent van Gogh, often portrayed as a lone genius, actively corresponded with peers, critiqued other painters, and planned an artist colony with Gauguin. Similarly, E.O. Wilson noted that "the great scientist who works for himself in a hidden laboratory does not exist."
As exquisitely social creatures, humans constantly strive to surprise and impress each other. This social dimension explains why computers struggle with creativity - they lack the social network of exploratory minds trying to astonish one another. True creative artificial intelligence would require a society of computers striving to impress each other.
Capítulo 3
Innovation's Hidden Genealogy
On January 9, 2007, Steve Jobs unveiled the iPhone, declaring "Today, Apple is going to reinvent the phone." The device combined communication, music, and computing in a handheld form that seemed revolutionary. Media called it the "Jesus phone," and like all great innovations, it appeared to come from nowhere with unexpected novelty. But despite appearances, innovations don't come from nowhere - they are branches on the family tree of invention. Bill Buxton's collection of technological devices reveals the iPhone's long genealogy, from the 1984 Casio touchscreen watch to IBM's 1994 Simon smartphone with basic apps and touchscreen. These predecessors laid the groundwork for what Jobs presented as revolutionary.
Great innovations don't emerge from nothing but build upon previous creations. The iPhone replaced dozens of separate devices that just two decades earlier would have cost over $3,000 combined. Similarly, the iPod evolved from Kane Kramer's 1979 IXI digital music player concept, which itself followed the Sony Walkman. As Steve Jobs admitted, "Creativity is just connecting things." Bill Buxton notes that typically two decades pass before a concept becomes a billion-dollar industry, suggesting that "anything that is going to become a billion dollar industry in the next ten years is already ten years old." Innovation isn't invention from nothing, but prospecting, mining and refining existing ideas.
NASA engineers saved Apollo 13 by drawing on their collective experience and available materials. They had developed options and workarounds for spacecraft failures before the mission, allowing them to improvise solutions under pressure. Similarly, Henry Ford revolutionized automobile manufacturing by combining existing concepts: interchangeable parts from Eli Whitney's munitions, continuous flow production from cigarette factories, and assembly line concepts from Chicago meatpacking. Ford himself acknowledged, "I invented nothing new. I simply assembled into a car the discoveries of other men behind whom were centuries of work."
Even the most seemingly original artistic works have genealogies. Samuel Taylor Coleridge's poetry, despite his reputation for opium-induced inspiration, drew heavily from books in his library. Picasso's revolutionary "Les Demoiselles d'Avignon" incorporated influences from Cezanne, El Greco, Gauguin, Iberian sculptures, and African masks. Picasso mined the raw materials surrounding him to create something revolutionary. Recognizing these influences doesn't diminish his originality - his genius lay in synthesizing these elements into something his contemporaries couldn't create despite having access to the same influences.
Humans are continual food-processors of experience, taking in the world and producing something new. Our cognitive abilities have accelerated innovation dramatically - from millennia between the Agricultural and Industrial Revolutions to mere years between recent breakthroughs. Despite seemingly different creative domains, all innovation follows three basic cognitive strategies: bending (modifying an original), breaking (taking a whole apart), and blending (merging two or more sources). These "three Bs" underlie all innovative thinking, from technology to art. They emerge from our brain's interconnectedness, where neurons connect promiscuously across regions in constant collaboration.
Capítulo 4
Bending: Transforming What Exists
Bending, the first creative tool, involves modifying or twisting an original into new forms. Claude Monet demonstrated this by painting Rouen Cathedral repeatedly from the same angle but in different lights, creating over thirty distinct representations of the same facade. Similarly, Katsushika Hokusai created thirty-six woodblock prints of Mount Fuji, depicting it in different seasons, distances, and visual styles.
Throughout history, cultures have bent the human form in diverse ways, as seen in Mayan, Japanese, and Ghanaian sculptures. Similarly, animal forms have been manipulated across Chinese, Cypriot, and Greek artistic traditions, showing how bending is a universal creative approach.
Bending happens beyond art, as shown by cardiology innovations. While artificial hearts initially mimicked natural pumping action, doctors Billy Cohn and Bud Frazier created a revolutionary continuous flow heart in 2004. Unlike nature's pumping mechanism, their design circulates blood continuously, allowing patients like Dick Cheney to live without a pulse - demonstrating how bending can reimagine fundamental assumptions.
Size manipulation is a powerful form of bending. Artists like Claes Oldenburg create massive everyday objects like teepee-sized shuttlecocks, while JR installed giant sculptures of Olympic athletes. Conversely, Alberto Giacometti created tiny human figurines, Anastassia Elias makes miniature art inside toilet paper rolls, and Vik Muniz etches nanoscale artwork on sand grains. This same cognitive process helped Edwin Land solve the problem of windshield glare by shrinking polarizing crystals to microscopic size.
Shape bending appears in Martha Graham's choreography, which broke from classical ballet's straight lines to create innovative poses and movements. Similarly, architect Frank Gehry warps flat building planes into rippling facades. Material bending is exemplified by Claes Oldenburg's soft sculptures and Otherlab's fabric-based soft robots, which can navigate difficult terrain and handle delicate objects better than traditional metal robots.
Time manipulation is another creative bend. Films use fast and slow motion to create effects, like the Keystone Cops' exaggerated pratfalls or Bonnie and Clyde's balletic death scene. Medically, modulating blood flow speed prevents clotting in continuous flow hearts. Harold Pinter's play Betrayal runs backward chronologically, while physicist Ernst Stueckelberg described positrons as electrons running backward in time. Scientists are even attempting to "reverse time" by recreating Neanderthals through genetic engineering.
We often fall prey to the "end of time" illusion-believing everything that can be done has been done. But bending's history proves otherwise. Consider knives: from primitive stone blades two million years ago to the diverse forms seen in 19th-century Philippines. Umbrellas too have evolved from ancient Egyptian palm leaves to modern innovations like the wind-resistant Senz, the inverted unBrella, and the hands-free Nubrella. In art, classics like Shakespeare's Romeo and Juliet transform into ballets, musicals, and even animated garden gnome stories.
Language evolves through constant bending. French verlan swaps syllables, turning "bizarre" into "zarbi." Words change meaning over time: "addict" once meant debtor-turned-slave, "husband" originally meant homeowner, and slang constantly shifts-"bad" means good, "hot" means sexy. This perpetual neural manipulation ensures human culture incorporates ever-expanding variations on themes passed down through generations.
Capítulo 5
Breaking: Finding Power in Fragments
Breaking involves fragmenting something whole and reassembling it into something new. Artists like Sophie Cave, Auguste Rodin, and Magdalena Abakanowicz create powerful works from isolated body parts. Barnett Newman snapped an obelisk in half and flipped it upside down, while Cubists like Braque and Picasso shattered visual planes into angular fragments, as dramatically displayed in Picasso's Guernica.
Breaking revolutionized aviation safety after a 1971 Pan Am accident where a plane struck a lighting tower. Engineers developed frangible structures-towers that appear solid but break apart harmlessly upon impact. Similarly, Bell Labs engineers solved mobile communication limitations by breaking continuous coverage areas into small "cells" with individual towers, enabling frequency reuse and creating the modern cellphone system.
Breaking creates new possibilities across disciplines. Frederick Sanger won two Nobel Prizes by breaking molecules-first insulin, then DNA-into manageable fragments for sequencing. In film, directors broke temporal continuity, creating narrative compression through cuts and montages, while Tony Verna invented instant replay by breaking television's temporal flow. John McCarthy revolutionized computing by breaking processing time into micro-segments, enabling time-sharing between multiple users. Artists like David Hockney broke visual space into photo-collages, while pointillism and pixelation fractured images into dots. Innovations like micro-encapsulation (breaking carbon paper into tiny capsules), MP3 compression (removing unheard frequencies), and the CLARITY method (removing lipids from brain tissue while preserving structure) all demonstrate how breaking things apart reveals new properties and possibilities.
Breaking comes naturally to human language. We compress words like "gymnasium" into "gym," create acronyms like FBI and CIA, and use text abbreviations like F2F and BFN. Our language employs synecdoche-using parts to represent wholes-as when we refer to "wheels" instead of vehicles or take a "head count" of people. This compression reflects how human thinking works, allowing us to break down complex concepts while preserving essential meaning.
Breaking things apart unlocks new design possibilities. David Fisher's "Dynamic Architecture" separates building floors to create structures that morph their appearance. In agriculture, Harry Ferguson revolutionized tractors by stripping away the heavy undercarriage and shell, creating a lightweight machine that wouldn't compress soil. The CoBot robot at Carnegie Mellon navigates hallways by breaking down visual data to just three points needed to identify walls, using less than 10% of its processing power. By selectively keeping only essential elements, these innovations transform what's possible.
Breaking revolutionized both musical composition and distribution. Bach's innovation was breaking musical phrases into smaller fragments, allowing him to create dense, beautiful mosaics of theme-fragments rather than repeating entire melodies. Similarly, Karlheinz Brandenburg's MP3 compression broke down audio files by removing frequencies masked by human hearing, reducing file sizes by 90% while maintaining perceived quality. His work with "Tom's Diner" by Suzanne Vega required hundreds of attempts to perfect, but ultimately enabled digital music sharing-so successfully that "MP3" eventually surpassed "sex" as the internet's most searched term.
Capítulo 6
Blending: Creating New Combinations
In blending, the brain combines two or more sources in novel ways. This creative technique appears across cultures in mythology-from the Minotaur and Sphinx to modern superheroes-where humans and animals merge to create chimeric beings. These aren't just imaginative constructs; they represent our neural networks' fundamental ability to weave together disparate threads of knowledge.
Science has turned mythical chimeras into reality through genetic engineering. Professor Randy Lewis created Freckles the spider-goat, which secretes spider silk in her milk-solving the problem of harvesting this ultra-strong material from cannibalistic spiders. Similar innovations include bacteria producing human insulin and fluorescent animals like Ruppy the Puppy. Engineer Eiji Nakatsu solved the bullet train's noise problem by mimicking a kingfisher's beak, while self-healing concrete incorporates bacteria that activate when cracks form, excreting calcite to seal damages. The ESP game blended human pattern recognition with computer processing power to solve the challenge of tagging millions of web images-neither humans nor computers could accomplish this alone.
Our brains' blending ability shapes our language through compound words like "rainbow" and "soulmate," slang like Cockney rhyming phrases, and metaphors that combine disparate concepts. T.S. Eliot compared evening to "a patient etherized upon a table," while Martin Luther King Jr. blended music, geology and meteorology in his rhetoric. Even new languages emerge through blending-Light Warlpiri developed when Australian children created their own syntax from their parents' mixed use of Warlpiri, Kriol, and English, introducing innovations like "you'm" that didn't exist in the source languages.
Blending appears throughout artistic expression, from medieval composers combining different texts and languages simultaneously to hip-hop artists repurposing lyrics and samples. Dr. Dre's "Let Me Ride" incorporates elements from James Brown, Parliament and King Tee, while a single drum solo from The Winstons has been blended into over a thousand songs. Visual artists blend concepts with varying degrees of obviousness-I.M. Pei's pyramid at the Louvre and Frida Kahlo's self-portrait as a wounded deer show clear sources, while Craig Walsh's faces projected onto trees and the Blur Building's vapor walls blend elements more thoroughly. Even sports evolve through blending, as seen in Brazil's futevolei, which combines soccer and volleyball techniques.
High Dynamic Range photography creates images "more real than reality" by blending multiple exposures with different aperture settings, optimizing local contrast throughout the scene. Similarly, Google Translate doesn't understand language but statistically compares your text against massive databases of existing translations, creating a behind-the-scenes blend of other people's writing to produce its results. The most transformative blends can be difficult to recognize as combinations-like bronze, which emerged when ancient Mesopotamians discovered that combining soft copper and tin created a metal harder than wrought iron, fundamentally changing human civilization.
The most transformative blends often hide their parentage. Bronze-the alloy that launched an age of civilization-resulted from combining two soft metals, copper and tin, to create something harder than wrought iron. Similarly, Chanel N5 perfume emerged when Ernest Beaux mixed dozens of natural essences with synthetic aldehydes, creating something entirely new. Our brains constantly forge connections across vast expanses of time, space and causation, as when Norman Rockwell blended modern industry, women's empowerment, and Michelangelo's Isaiah to create Rosie the Riveter. This cross-pollination drives innovation-from Michelle Khine's ingenious use of Shrinky Dinks to create affordable microfluidic medical tests, to Einstein's elevator thought experiment that revealed gravity as a type of acceleration. Unlike animal reproduction, human mental blending is unconstrained, allowing ideas from any time or place to mate in novel ways.
Capítulo 7
Creativity in Cultural Context
NASA engineers and Picasso both innovated using the same fundamental tools: bending, breaking and blending. The engineers reversed electric currents (bending), tore apart equipment (breaking), and combined cardboard, plastic, socks and hoses (blending)-just as Picasso warped human bodies, fractured visual planes, and incorporated African masks. These three B's are the basic routines in our mental software of invention, turning experience into novel creations. Yet innovation requires more than just novelty-it needs cultural resonance.
Creative ideas must resonate with their society to succeed. Cultural context determines which innovations thrive-17th century French playwrights adhered to Aristotle's three dramatic unities while Shakespeare ignored them, and Japanese Noh drama followed entirely different conventions. Similarly, French gardens emphasized symmetry and manicured layouts while English gardens celebrated winding paths and natural disorder. Even scientific truths face cultural barriers: Nazi scientists dismissed Einstein's theories as "Jewish science," hampering their nuclear program, while the transistor thrived in America but its French counterpart (the "transitron") languished due to shifting government priorities. Timing matters too-Shakespeare's tragic King Lear was rewritten with a happy ending during Restoration England, and scientific experimentation only replaced individual revelation after England's civil war, when Robert Boyle's methods aligned with the new parliamentary power structure. Innovation emerges when the cultural moment is right.
Creativity ultimately faces public judgment, as Beethoven discovered in 1826 when his ambitious Grosse Fuge finale proved too radical for audiences. Though Beethoven initially cursed his listeners as "cattle and asses," he eventually compromised by replacing the challenging seventeen-minute fugue with a more accessible finale. This exemplifies the delicate negotiation between creative vision and audience reception. Innovation exists within cultural context-Hemingway's sparse dialogue would have seemed incomprehensibly indirect to 19th century readers accustomed to Cooper's ornate prose, just as Earle Brown's experimental Available Forms I, with its improvised structure, would have bewildered Beethoven's contemporaries despite using familiar instruments and notation. Creative work, while reaching for the timeless, remains fundamentally shaped by its cultural moment.
Companies that stick too closely to successful formulas risk obsolescence. BlackBerry dominated smartphones in 2007 but clung to physical keyboards while touchscreens revolutionized mobile computing, causing their market share to plummet 75%. Similarly, Kodak, despite inventing digital photography, hesitated to fully embrace it for fear of cannibalizing film sales, eventually filing for bankruptcy in 2012. Blockbuster's 11,000 stores couldn't survive the streaming revolution. These cautionary tales show that incremental innovation often fails when transformative change is needed-as when electric lighting replaced gas, automobiles replaced horses, and transistors replaced vacuum tubes.
Radical innovations often fail despite clear advantages. Between 1865 and WWII, hundreds of attempts to create universal languages emerged, with Esperanto coming closest to success. Despite its logical design-consistent sounds, regular verb conjugations, and systematic vocabulary building-Esperanto never achieved widespread adoption beyond enthusiast circles. Similarly, numerous attempts to replace the flawed Gregorian calendar with more logical systems (Cotsworth's thirteen-month calendar, the World Calendar, Asimov's Season Calendar) all failed due to religious objections, software compatibility issues, and the sheer inertia of existing systems. Even Better Place's innovative battery-swapping stations for electric vehicles in Israel collapsed when consumers weren't ready to make the switch. Innovation must balance between incremental improvements that risk irrelevance and disruptive leaps that may alienate users-a perpetual tug-of-war between predictability and surprise.
Capítulo 8
Nurturing the Creative Spirit
We inhabit a world built entirely from human creativity, where everything from buildings to eyeglasses results from our ancestors processing what was available and producing something new. Yet despite our uniquely human determination to turn imagination into reality, we don't always reach our creative potential. The LEGO Movie metaphorically captures our creative predicament: the villain wants to permanently glue a perfect LEGO city in place, while the hero fights to keep rebuilding it. This reflects how humans don't just improve imperfections-we also tamper with things that seem perfect, refusing to "glue down the pieces." Jonathan Safran Foer demonstrated this by die-cutting Bruno Schulz's beloved text The Street of Crocodiles, transforming it into something new. True creativity honors tradition not through preservation but through transformation.
Artists throughout history have "broken good" by transforming beloved works into something new. Foer showed his admiration for Schulz by remaking his text into a prose sculpture. Similarly, Manet transformed a 15th-century engraving into Le Dejeuner sur l'herbe, which Picasso later reinterpreted. This artistic chain continued with Colescott remodeling Picasso's Les Demoiselles d'Avignon. When institutions like the French Art Academy tried to cement conventions, artists rebelled, resulting in the groundbreaking Salon des Refuses that shifted art toward contemporary subjects and experimental techniques. The human urge to remodel extends beyond art-Alfred Wegener challenged geological orthodoxy with continental drift theory, facing ridicule before eventual vindication. Even successful creators break their own traditions: Philip Guston abandoned abstract expressionism for figurative art despite harsh criticism, the Beatles produced the experimental Revolution 9, and biologist E.O. Wilson reversed his fifty-year position on kin selection. This innovative spirit extends to seemingly perfect achievements like Stradivarius violins, which modern makers still attempt to improve with new materials and designs. Despite the Stradivarius being considered the pinnacle of violin craftsmanship, innovators like Luis Leguia and Steve Clark created carbon-fiber violins that are lightweight and impervious to humidity changes. In blind tests, modern violins often outperform the legendary instruments. Our brains resist repetition through "repetition suppression," driving us to continuously remodel even our most cherished creations.
The human brain excels at generating multiple options rather than settling for single solutions. This proliferation of possibilities is a cornerstone of creativity, demonstrated when George Washington Carver testified before Congress in 1921. Seeking to promote peanuts as a rotation crop for depleted cotton fields, Carver overcame racist remarks by presenting over a hundred peanut-based products, from ice cream to face cream, winning over the committee and becoming a folk hero to Southern farmers.
Creative minds naturally generate abundant variations. Picasso painted fifteen variations of Delacroix's Women of Algiers, twenty-seven of Manet's Le Dejeuner sur l'herbe, and fifty-eight of Velazquez's Las Meninas. Beethoven composed variations on folk songs and classical themes, including thirty-three variations on a single waltz by Diabelli. Even when the public sees only the final product, artists often explore numerous possibilities behind the scenes. Hemingway drafted forty-seven different endings for A Farewell to Arms before selecting his stark final version, each alternative offering different emotional resonances and philosophical conclusions.
Proliferating options is essential across disciplines. The Wright brothers tested thirty-eight different wing surfaces before finding the optimal design. Charles Kettering spent six years trying different approaches to invent the diesel engine. At Levi's Eureka Innovation Lab, designers experiment with thousands of dye and denim variations. Designer Max Kulich generated numerous personal mobility vehicle concepts for Audi before settling on the CitySmoother. Architects routinely draft multiple alternatives-the Architectural Research Office created seventy different facades for New York's Flea Theater before selecting one. In pharmaceutical development, high-throughput screening has revolutionized drug discovery by testing thousands of chemical combinations simultaneously. Even after product launch, inventors like Edison continue generating options, as shown by his list of ten potential uses for the phonograph beyond entertainment. This diversity of approaches mirrors nature's branching tree of life-the surest path to extinction is over-investing in a single solution.
Capítulo 9
Building Creative Organizations
In the late nineteenth century, as cities expanded upward, Frank J. Sprague saw an opportunity to revolutionize elevators with electric power. Despite Otis Elevator Company's monopoly, Sprague took enormous financial and personal risks, agreeing to install six elevators in the Postal Telegraph Building with payment only upon successful completion. Working against financial panic and technical challenges, Sprague persevered through near-disasters-including a maiden elevator ride that nearly crashed through the roof-to create the foundation for modern elevator design.
Creative output typically requires embracing failure. Thomas Edison tried 3,000 different theories and countless materials before finding Japanese bamboo as the optimal filament for his commercially viable light bulb. William Shockley persisted through a year of failed experiments before successfully developing the transistor, calling it "the natural blundering process of finding one's way." James Dyson created 5,127 prototypes over fifteen years before perfecting his bagless vacuum cleaner, with his family counting pennies during the toughest times. These innovators succeeded precisely because they tolerated risk and kept pushing through repeated failures.
Even brilliant innovations face rejection. Michelangelo's Last Judgment fresco in the Sistine Chapel provoked outrage for its nudity and blending of Biblical and Greek mythological elements; after his death, the genitalia were covered with fig leaves. Gyorgy Ligeti's experimental piece for 100 metronomes at Hilversum's 400th anniversary celebration was met with "menacing cries of protest" and banned from television broadcast. Richard Serra's Tilted Arc sculpture was dismantled after public outcry against the 120-foot steel wall disrupting pedestrian paths. Other failures include Edison's concrete piano, Ford's disastrous Edsel (costing $350 million), and Coca-Cola's rejected New Coke formula. These cases demonstrate that no matter how promising an idea seems to its creator, public reception remains an uncontrollable risk that innovators must be willing to face.
Innovation's path is fraught with unpredictability. Urban planner Kenneth Norwood's 1959 time capsule predicted Burbank would have plastic apartment buildings powered by underground atomic energy-none of which materialized. World's Fairs consistently fail to showcase what will truly transform society; the 1893 Chicago Fair displayed telegraphs and telephones but missed automobiles and radio, while the 1964 New York Fair couldn't envision desktop computers. Most innovative ventures collapse-countless car manufacturers, video game systems, dot-com startups, and biotech companies have disappeared despite promising beginnings. Even successful innovations can quickly become obsolete, as happened with the Wright brothers' wing-warping technique, which was replaced by ailerons within a decade of their historic flight. Creative companies must therefore navigate a treacherous landscape where the future is unforeseeable, most ideas fail, and even brilliant concepts may have brief lifespans.
Visionary companies operate at the frontier of possibility. In the 1940s, while America was still emerging from the Depression and fighting a world war, Raymond Loewy designed the revolutionary SceniCruiser bus for Greyhound-featuring air conditioning, restrooms, color-coordinated seats, large overhead bins, and upper deck seating with skylights. Though initially impractical with its oversized wheelbase, Greyhound recognized its potential and developed prototypes after the war. By 1954, as America built its interstate highway system, the SceniCruiser became the era's most popular touring bus. Similarly, today's automakers design futuristic concept cars with swiveling seats, windshield entrances, and unconventional shapes-intentionally overshooting current possibilities to prepare for changing times. As industrial designer Alberto Alessi notes, creative companies must explore not just what customers currently understand and accept, but push into territory they aren't yet ready for.
Capítulo 10
Reimagining Education for Creativity
Our children spend most of their waking hours in classrooms where their aspirations are nurtured and societal expectations are formed. Yet many schools offer little to digest, instead serving a diet of regurgitation that leaves society hungry for future innovators. We remain stuck in an educational system born during the Industrial Revolution - with regularized curriculum, chalkboard lectures, and factory-like bell schedules - that poorly prepares students for an advancing world where jobs rapidly evolve. The real purpose of education should be training students to remake the world's raw materials and generate new ideas. Fortunately, transforming classrooms doesn't require tearing up existing lesson plans - just implementing guiding principles that promote creative thinking.
Art teacher Lindsay Esola begins each year by having fourth graders draw an apple, with most students simply copying her example. This exercise launches a semester exploring dozens of ways to draw apples - mimicking Surrealism, Impressionism, Pop Art and using various materials from watercolors to yarn. The culminating "Anything Apple" assignment encourages students to mix techniques freely. When Esola draws an apple again at semester's end, almost no one copies her - the classroom wall becomes a gallery of creative interpretations. True creative education exists in the sweet spot between unstructured play and model imitation, giving students precedents without constraining their choices. Other examples include asking students to paint the "next" work by their favorite artist, retelling stories from different perspectives (like "The True Story of the Three Little Pigs"), creating alternate histories, or designing science-fiction prototypes of products that don't yet exist. By combining apprenticeship in existing work with creative license, students learn to seize the baton of human creativity and run with it into the future.
Too often we're satisfied when students produce a single creative solution, but inventive minds are just getting warmed up with one answer. Students need training to generate multiple solutions, as they typically lock prematurely into one answer. This training should start early with exercises like those inspired by Antoinette Portis' book "Not a Box," where a rabbit reimagines a box as various objects. In the arts, variations demonstrate the proliferation of options - from jazz musicians improvising on standards to Jasper Johns creating multiple interpretations of the American flag. This approach helps students appreciate natural diversity, as in the "sailing seeds" experiment where they study and then design new ways for seeds to travel, gaining deeper understanding of natural selection. Even when answers are fixed, creative teaching encourages finding different paths to solutions, as physicist Richard Feynman advocated when reviewing math textbooks. He argued against teaching a single method for solving problems, instead promoting freedom for minds to wander and invent new approaches. Effective teachers inspire students to explore both near and far from the source, as illustrated by Picasso's and Lichtenstein's bull series, where both artists began with realistic images but pushed in dramatically different directions. The value of this approach is further demonstrated by Rice University students who created an inexpensive IV drip regulator using a mousetrap mechanism, solving a critical health problem in developing countries through creative distance-traveling from conventional solutions.
Risk-taking must be cultivated in education to foster creativity. Stanford psychologist Carol Dweck's research shows that praising effort rather than achievement encourages students to accept challenges. "Sandboxing" - borrowed from video gaming - allows students to experiment with multiple options before committing to one for final evaluation, removing the penalty for creative exploration. Open-ended problems like the classic egg drop experiment teach resilience, as students analyze failures and iterate designs until successful. Projects like creating "super-fonts" (redesigning letters to maximize visual distinction) or NASA's "Imagine Mars" challenge students to tackle problems without predetermined solutions. These approaches develop students who don't fear wrong answers but instead build diverse intellectual portfolios that include speculative investments alongside safe bets.
The arts are essential for developing innovative thinkers, serving as the most accessible way to teach creative tools. The same strategies visible in art - like Giacometti's miniaturization or Picasso's break-up of continuous areas - parallel innovations in technology. Yet arts education is often first cut when budgets tighten, despite its economic value. As technology becomes more integrated into daily life, design becomes crucial - companies like Apple and IBM invest billions in aesthetics because poorly designed interfaces doom products. Form and function must merge through arts and technology, as demonstrated when Texas A&M engineers incorporated theater techniques to make robots more relatable. Additionally, the arts promote risk-taking in ways predetermined science experiments cannot - as composer Morton Feldman noted, "in art we must pursue anxiety." Better arts make better engineers.
Human creativity operates both overtly and covertly. Covert creativity, like YouTube's solution to HD streaming by splicing videos of different resolutions, is designed not to call attention to itself - it's creativity with a poker face. In contrast, overt creativity, exemplified by the Pompidou Center's exposed functional elements or Christian Marclay's 24-hour video montage "The Clock," reveals its inner workings. The arts provide the richest source of overt creativity across cultures, functioning as the open-source software of innovation by putting creative processes on display. While engineers hide their innovations behind seamless functionality, artists like Marclay enable us to observe the bones of the creative process, making the arts invaluable for studying how new ideas are born.
