Chapter 1
Seeing Beyond Illusions: The Science of Perception
When you open your eyes each morning, do you truly see reality? According to neuroscientist Beau Lotto, the surprising answer is no. Your brain isn't a passive receiver of information but an active creator of meaning. Only 10% of what you "see" comes from your eyes-the rest is constructed by your brain based on past experience. This revelation has captivated millions, including celebrities like Keanu Reeves and tech titans like Elon Musk, who cite Lotto's work as transformative to their understanding of human cognition. "Deviate" became an instant bestseller when published, praised by Scientific American as "a revolutionary look at how perception shapes our reality." Through a blend of cutting-edge neuroscience, optical illusions, and philosophical inquiry, Lotto invites us to question our most fundamental assumptions about perception and reality-and in doing so, opens new possibilities for innovation, creativity, and personal transformation.
Chapter 2
The Illusion of Objective Reality
When a simple photograph of a dress went viral in 2015, splitting the internet between those who saw it as blue/black versus white/gold, it revealed something profound about human perception. This wasn't just an interesting anomaly-it was a window into how our brains fundamentally operate. The dress phenomenon was particularly unsettling because color perception feels like an objective truth. When friends and loved ones see colors differently, it raises existential questions about consciousness itself. As comedian Mindy Kaling tweeted during the controversy, it was "an assault on what I believe is objective truth."
The dress debate illustrates a counterintuitive truth: our brains don't give us access to reality. This becomes evident through simple experiments, like viewing identical gray circles against different backgrounds. The circles appear to be different shades despite being identical, proving that even the simplest visual tasks aren't as straightforward as they seem.
The celebrated German writer Johann Wolfgang von Goethe discovered this subjectively when attempting to replicate Newton's light refraction experiments. Initially convinced Newton was wrong, Goethe spent twenty years studying color perception, eventually realizing the discrepancies weren't in the physical properties of light but in human perception itself. His massive 1810 work "Theory of Color" was scientifically dismissed yet sparked philosophical discussions that continue today.
Our brains didn't evolve to see reality accurately-they evolved to help us survive. This counterintuitive truth challenges Enlightenment assumptions about human rationality. Despite not perceiving reality, our senses aren't "weak" but rather the product of rigorous evolutionary development. The optical illusions we experience aren't evidence of fragile perception but of a highly adaptable system shaped by millions of years of evolution. Seeing reality accurately isn't necessary for survival and might even hinder it.
Without understanding this fundamental premise about perception, we remain trapped in old ways of seeing, searching for answers in the wrong places-like the person looking for lost keys under a streetlight simply because that's where they can see, not where the keys were dropped.
Chapter 3
The Meaninglessness of Raw Information
We live in the information age, where data flows freely and abundantly. Yet despite having access to terabytes of information, this rarely translates into genuine understanding. Why? Because all information, in its raw form, is inherently meaningless.
The energy and molecules that fall onto our senses could mean anything-photons entering our eyes, vibrations through our ears, friction across our skin-these are just electro/chemical energies. We don't access sources directly, only the changes they produce. The "reality" we perceive is actually the meaning our brain gives to meaningless information based on our evolutionary history and personal experience.
Our perception is severely limited in four fundamental ways. First, we don't sense all there is to sense. Our perception is like being inside a mobile home with five windows-our senses-that we can never step outside of. These windows are smaller than we think. We see only a narrow range of electromagnetic radiation, missing ultraviolet and infrared light that other species can detect. Reindeer can see ultraviolet light, helping them locate lichen for food. Bumblebees have sophisticated color vision that evolved before flower pigmentation-flowers evolved to be beautiful to bees, not humans. Birds have twice our color receptors and can perceive light polarization, which helps them navigate and hunt.
Second, the information we take in is in constant flux. Nothing outside our perceptual "mobile home" is fixed or stable. The world and everything in it constantly changes-deer move, day turns to night, seasons change. Our bodies too are always moving, making our reality an endless transformation. Even if our brains gave us direct access to reality, by the time we perceived it, it would already have changed.
Third, all stimuli are highly ambiguous. A smile can express joy, sarcasm, malice, condescension, romantic interest, or mask pain-making it meaningless in isolation because it could mean anything. Similarly, a dog putting its ears back could signal either aggression or greeting. All stimuli are behaviorally meaningless by themselves because the information our senses receive can be interpreted infinitely.
Finally, there is no instruction manual. Perception evolved not as an end in itself but to enable action-our brains developed to help us respond to our environment. Yet the fundamental problem is that information provides no instructions about how to act. Objects constrain behavior but don't dictate it-a rock could be a tool, weapon, or paperweight with no inherent meaning or purpose.
Remarkably, this inability to see objective reality isn't a flaw but the very reason for our success as a species. We survive through trial and error-engaging empirically with sources of ambiguous information, which constructs and changes our brain's architecture.
Chapter 4
How Our Brains Create Meaning
Our brains construct meaning from meaningless sensory information by drawing on the only resource available: past experience. This remarkable adaptive capability is demonstrated through stories like Ben Underwood's, who developed echolocation after losing his eyes to cancer at age three. By clicking his tongue and interpreting the acoustic feedback, Ben created a "visual display" that allowed him to navigate his world, ride bikes, and even play video games.
His brain physically changed to accommodate this new way of perceiving-not despite its interpretive nature but because of it. This exemplifies how perception works: through trial and error, action and reaction, our brains develop a historical record of experiential feedback that physically sculpts neural architecture. At the cellular level, each new pulse of information alters neurons and their connections, changing the very structure of our brain.
The "Kitten in a Basket" experiment by Richard Held and Alan Hein dramatically illustrates the difference between active and passive sensory engagement. Kittens raised in darkness were placed on a carousel-one free to move (Kitten A), the other confined to a gondola (Kitten P). Though both received identical visual stimulation, only Kitten A developed normal spatial perception and coordination through active exploration. Kitten P remained effectively blind, unable to navigate visual cliffs or position its paws properly. The good news: after just 48 hours of free movement in light, Kitten P caught up completely, showing our remarkable neurological adaptability.
Our brains are designed to adapt through active engagement with our environment. The feelSpace belt experiment demonstrates this remarkably-participants wearing a belt that vibrated toward magnetic north for seven weeks developed an entirely new spatial sense. They reported expanded mental maps, deeper spatial awareness, and improved navigation without conscious effort. Though describing these new perceptions proved difficult, their brains physically changed to incorporate this new sensory input.
Neurobiologist Dale Purves' research shows how our bodies handle developmental complexity through adaptive pruning. The body produces excess nerve cells and lets them compete for limited neurotrophic factors-proteins that sustain neurons. Only nerve cells successfully connecting to muscle fibers survive, with the rest eliminated. This process mirrors evolution in microcosm-eliminating redundancy while strengthening useful connections through activity.
The relationship between the cerebral cortex and thalamus reveals a neurological love story. In early development, these brain regions survive independently, but once they form connections, they become utterly codependent. When separated after forming these bonds, cells from both regions wither and die without the other's growth factors. This demonstrates how brain regions develop profound interdependence, creating neural networks that physically manifest our perceptual history.
Our brains physically adapt to our environments across three timeframes: short-term learning, medium-term development, and long-term evolution. This adaptability reveals a fundamental principle: minds match their ecology! Your brain is physically shaped by your environment-your neural tissue is a direct manifestation of past perceptual meanings.
Chapter 5
Context Is Everything
Information is meaningless until we engage with it, and the context of perception determines what we actually see. This principle was discovered in 1824 when Louis XVIII appointed chemist Michel Eugene Chevreul to investigate complaints about the Gobelins tapestry factory. Customers claimed the colors they took home differed from showroom samples. After exhaustive investigation, Chevreul discovered the issue wasn't chemical but perceptual-colors appear different when placed alongside other colors.
His groundbreaking work led to modern color theory and influenced artists from Delacroix to the Impressionists. The brain deals in relationships, not absolutes, as meaning can't exist in a vacuum. We need deviation and contrast to perceive anything at all-without difference in space or time, we would literally go blind, as demonstrated by restricting eye saccades.
Our brains require contrast and difference to function properly. The eyes make constant tiny movements called saccades and microsaccades, which Russian psychologist Alfred Yarbus demonstrated are essential for vision. Without these movements and the differences they detect, we literally go blind-as can be demonstrated by holding an eye completely still. The brain is fundamentally interested only in change, difference, and contrast as sources of information to interpret.
Our brains don't seek accuracy in perception-they seek usefulness. We never have direct access to reality, so we can't compare our perceptions to objective truth. When leaping across buildings to escape danger, your brain doesn't calculate precise distances-it relies on evolutionary history to produce useful responses that ensure survival. The feedback we receive only tells us if our behavior was effective, not if our perception was accurate.
Our perception of language demonstrates how the brain constructs meaning from incomplete information. When presented with partial text like "ca y u rea t is," we automatically fill in the gaps to read "Can you read this?" This happens because our brains have encoded the statistical patterns of letter combinations in English. We don't see what's actually there-we perceive what would have been useful to perceive based on past experience.
Pain perfectly illustrates subjective perception versus objective reality. Pain isn't physically located where we feel it-it exists only in the brain. When we break an arm or cut a finger, nociceptors register damage and relay messages to our nervous system, but the actual experience of pain is a perceptual projection. Pain functions as an urgent conversation between mind, body, and environment, motivating us to take action. It's not "accurate" in any objective sense-it's a survival mechanism that has proven useful throughout our evolutionary history.
Only 10 percent of the information your brain uses to see comes from your eyes. The other 90 percent comes from other brain areas, with ten connections from other cortical regions for every one connection from the eyes. This reveals why "seeing is believing" gets it wrong-our perception is primarily constructed from internal processes rather than external reality.
Chapter 6
The Power of Delusion
Life fundamentally involves making one basic decision: to go toward or away from something. Our responses, like those of a frog trying to eat digital ants on a smartphone screen, are based on assumptions grounded in our history. Unlike frogs, humans possess the power of delusion-we can imagine. Our perceptions form a multilayered, ever-changing story where we're not passive listeners but active storytellers. Through imagination, we can actually change our neurons and history, thereby altering our perceptual behaviors.
Malevich's revolutionary works like "Black Square" and "White on White" demonstrate how art challenges our perception. These paintings aren't valuable for their pigments but for their historical meaning-the $60 million price tag for "White on White" buys the meaning of a moment, not just paint on canvas. Unlike animals, humans build layers of meaning upon meaning, creating perceptions that profoundly impact our lives. John Cage's silent composition "4'33"" similarly forces audiences to question what silence and music truly are-demonstrating how the human mind makes meaning from abstract ideas beyond basic sensory information.
Our delusional nature affects perception at fundamental levels. A Science Museum experiment showed that people primed to feel less powerful demonstrated enhanced brightness perception compared to high-power and control groups. This reveals how psychological states physiologically alter basic perceptual processes-those feeling less powerful unconsciously work harder to regain control by processing contextual cues more effectively. Power even changes how we visually explore environments-low-power individuals focus more on backgrounds while high-power people attend to foregrounds.
Our brain's suggestibility makes us vulnerable but also provides utility. Breaking free from limiting assumptions begins with genuine awareness-not just acknowledging we have assumptions, but actively living with this knowledge as a revolutionary tool for changing perception and being.
Chapter 7
The Neural Architecture of Assumptions
Our brains carry forward not objective reality but reflexive assumptions manifested in our neural architecture. These assumptions are essential-without them we couldn't perform basic functions like walking or breathing without conscious effort. Cultural differences shape even basic perceptual processes-Western individuals focus on discrete facial features while Eastern individuals process faces more holistically, focusing on the nose region. These differences stem from individualistic versus collectivist cultural values that unconsciously shape our neural pathways and visual processing.
Family structure, particularly birth order, also shapes our perceptual assumptions-firstborns tend toward conscientiousness and respect for authority while laterborns like Charles Darwin develop more openness and questioning of convention. Our assumptions aren't just abstract concepts but physical electrical patterns in our brains that become stable "attractor states"-like dunes in a desert or whirlpools in a river.
The human brain contains not 100 billion neurons as commonly cited but 86 billion (as discovered by Dr. Suzana Herculano-Houzel), forming 100 trillion connections with nearly infinite possible patterns, yet our actual perceptions represent only a tiny subset constrained by our experience-driven biases.
The space of possibility represents all potential patterns of neural activity your brain can generate based on its network structure. It contains all perceptions, ideas, and behaviors you're capable of experiencing-from mundane to extraordinary-though most you'll never actually encounter. Your assumptions, encoded in your neural connectivity, determine the boundaries and dimensions of this space.
While infinite neural patterns are theoretically possible, not all are useful. Dr. Adadevoh's response to the Ebola crisis illustrates this perfectly-her unique assumptions allowed her to see solutions invisible to Nigerian officials. Her different neural wiring created a different space of possibility where quarantining the patient was the obvious choice, while officials wanted to send him back to Liberia.
Our brains don't make big jumps. Instead, we take small steps toward what seems most likely right based on past experience. The most probable "next perceptions" are those closest to our current state, while potentially brilliant ideas at the edges of our space remain invisible. This explains why we often miss optimal solutions-they're too distant from our assumption-based landscape.
Chapter 8
Changing Your Future by Rewriting Your Past
The key to seeing differently is to change our future by changing our past. Though seemingly paradoxical, this is what humans constantly do through storytelling and reframing experiences. Benjamin Libet's famous 1980s experiments revealed a time lapse between when our neural circuitry makes decisions and when we become conscious of them, challenging notions of free will and agency. His findings showed that participants' brain activity (Bereitschaftspotential) occurred 400 milliseconds before their conscious decision to move their wrist, suggesting our conscious decisions might be an illusion-merely observations of neural processes already underway.
While we lack free will over our immediate responses, we can influence our "future now" by changing the meanings of past events-what Lotto calls changing our "future past." This re-meaning process alters our perceptual foundations and consequently our future reflexive behaviors. We begin this transformation through questioning-particularly by asking "why?" about our deepest assumptions. Milan Kundera's novel "The Joke" demonstrates this power, where a seemingly harmless joke led to life-altering consequences both for the protagonist and for Kundera himself when the book sparked rebellion during Prague Spring.
Our obsession with "Big Data" misses a crucial point: information without understanding is meaningless. Data merely provides who/what/where/when patterns, but understanding requires knowing why. Understanding collapses complex, high-dimensional datasets into generalizable principles that transcend specific contexts. While schools focus on teaching measurable facts, they neglect teaching understanding. We need fewer definitive answers and more philosophical questioning-"questions worth asking" rather than just "ideas worth spreading."
Creativity emerges not from magical insight but from questioning the right assumptions in novel ways. The Rosetta Stone's decipherment illustrates this perfectly. While Thomas Young and others assumed hieroglyphics were purely symbolic, Champollion questioned this fundamental assumption, recognizing they represented phonetic sounds from the Coptic language. This seemingly small shift in assumption unlocked an entire civilization's history.
Our assumptions form an interconnected network where foundational beliefs act as strongly connected nodes. When we question these core assumptions, we don't just change one perception but potentially transform entire systems of thought. This network operates as a complex system-disrupting one strongly-connected node affects everything linked to it. The right "why" question, though small, can transform a person, idea, institution or culture by targeting highly-connected assumptions.
Chapter 9
Revealing the Invisible
Revolutionary questions demolish old assumptions to establish wiser ones, but we're often blind to why we do what we do. Our assumptions shape our perceptions invisibly, making it difficult to know where to direct our "why" questions.
The candle problem demonstrates how our assumptions constrain creativity. Despite the objectively simple solution of using the thumbtack box as a shelf, most people struggle because the brain makes perceptions of least resistance-seeing the box as a container only. When the tacks are placed outside the box, our brain is freed from this assumption. The "aha moment" isn't miraculous inspiration but a small, logical progression to the next possible perception after questioning assumptions.
Our assumptions remain invisible to us-we're as blind to them as they are to us. This "bias-blindness" forms the foundation of the Physics of No, where people reject ideas without knowing why, treating their perceptions as immutable laws. We struggle to see our assumptions even after learning they define us. Our brain perceives itself as stable and unchanging, though as Walt Whitman wrote, "I contain multitudes." Our assumptions and personalities shift depending on context, yet we rarely approach life with this understanding.
Engaging with people as if they were unchanging "averages" can be disastrous, as Victoria's Secret discovered with their "Perfect Body Campaign." Rather than inspiring purchases, the campaign featuring thin supermodels triggered outrage from women who felt excluded rather than reflected in their uniqueness. Victoria's Secret's mistake wasn't just presenting unattainable beauty but assuming all women aspire to one "perfect body."
Our emotions serve as powerful indicators revealing our assumptions-when expectations aren't met, negative feelings flood our perception. The equation for happiness hinges on whether events match expectations, with dopamine spiking in anticipation rather than during experiences themselves. Seasickness exemplifies this principle: the conflict between visual stability and vestibular motion creates uncertainty, triggering nausea as the brain's "get out of here" signal.
Actively seeking emotional challenges through diverse experiences reveals our assumptions. Even without international travel, we can expand our perceptions through unfamiliar local contexts. Reading works similarly, encoding imagined experiences almost like lived ones. The most effective way to reveal and create new assumptions is through physical engagement with the world-real-life trial and error that allows us to lastingly re-mean past meanings and expand our perceptual possibilities.
Destin Sandlin, creator of "Smarter Every Day," embodies the process of questioning assumptions through physical experiments. His most revealing challenge involved learning to ride a bike with reversed steering mechanics-turning left made it go right and vice versa. Despite his engineering background, it took him eight months of daily practice to master this "Backwards Brain Bicycle," revealing how deeply entrenched our neural assumptions become. His young son learned it in just two weeks, demonstrating children's greater neural plasticity.
Chapter 10
Embracing Uncertainty
Darkness embodies our fundamental fear of the unknown-the space beyond what we can perceive or predict. This existential fear stems from our evolutionary past, when uncertainty often meant death. In the harsh landscape of East Africa two million years ago, our ancestors faced scarce resources, dangerous predators, and constant unpredictability. Those who couldn't anticipate threats or find necessities simply didn't survive.
While avoiding uncertainty benefits individuals in stable environments, species survival in dynamic environments depends on those who deviate. Research confirms diverse populations find optimal solutions more readily and develop more complex neural processes when evolved in uncertain environments. Our brains evolved to overcome uncertainty by predicting from seemingly useless data, which explains why living systems hate uncertainty-manifesting as fear of darkness in humans and fear of light in nocturnal rats.
When faced with uncertainty, our brain employs anger as a defense strategy. This creates a powerful perceptual delusion of certainty, supported by drastic physiological changes-released catecholamines increase energy perception, heart rate accelerates, blood pressure rises, and attention locks onto the anger target. Our brain's foundational drive for certainty explains why subjects in lower power states perceived color illusions more strongly-their sharpened vigilance was attempting to increase certainty.
This drive can lead to self-destructive behaviors, like domestic violence victims staying with abusers, preferring known pain over uncertainty. Studies show uncertainty causes more stress than certain negative outcomes, explaining why companies reducing uncertainty (like Uber tracking taxis or bus arrival displays) succeed tremendously.
The desire for certainty shapes our possibilities, perceptions, and lives. While this need typically saves us, it also sabotages creativity. The greatest obstacle to deviation isn't our environment or intelligence, but human perception itself and our perceived need for knowing. Society reinforces certainty through institutions like courts, governments, and education systems, while religions replace personal assumptions with unquestionable ones.
To engage in creative conflict, we must listen differently-actively observing instead of defensively listening. Most people approach conflict as an unconstructive activity, trying to destroy the other's viewpoint rather than exploring new possibilities. Instead, we should see conflict as a chance to discover another's deviance-what makes them uniquely themselves.
The first step to deviation is simple: stop. To move from A to B, you must first go from A to not-A-a place of uncertainty where you experience stimulus without past meaning. When someone bumps into you, don't immediately think "What an asshole!" (A) but stop and consider alternatives. Meditation serves as a mechanism for going to not-A by emptying your mind of automatic meanings, increasing empathy and even physically changing your brain's gray matter. Free will exists not in going to A, but in choosing not-A.
Chapter 11
The Ecology of Innovation
Understanding how perception works opens a new frame for creativity and creation. By learning why our brain evolved to perceive as it does, we can change how we see. Though we're individually responsible for questioning, none of us exists in vacuum-we create our ecology and are created by it. To truly deviate, we must innovate our perception within the world we interact with.
Behind an unassuming door at UC Berkeley lies Robert Full's revolutionary Poly-PEDAL Lab, where robots resembling insects sprawl across surfaces. The lab has solved mysteries like how geckos stick to walls using van der Waals forces and how cockroaches move upside down with adhesive hairs. Full's humble approach values collaboration over ego, applying these "architectural secrets" to human endeavors through robotics.
Full's leadership isn't about having answers but asking good questions. His job is first to create caring through wonder, then to ask "Why?" of the right assumptions, followed by "How?" or "What if?", then observe, share, and repeat. A great leader creates space for others to step into uncertainty and flourish.
The solution evolution has given us to uncertainty is a way of being defined by five principles: 1) Celebrating uncertainty as gain, not loss; 2) Openness to possibility, encouraging diversity of experience; 3) Cooperation, finding value in group diversity; 4) Intrinsic motivation, letting creativity be its own reward; and 5) Intentional action, engaging consciously from the perspective of why. Remarkably, principles I through IV are defined by one word: PLAY.
Play isn't just an activity but an attitude. Isabel Behncke, who studied bonobos in the Congo, discovered that play is more frequent than sex in their society. Humans are similar-play allows us to engage with the world because in play, uncertainty is celebrated. Unlike post-hoc activities (hunting for food, working for shelter), play is intrinsically motivated-we play to play.
While play enables stepping into uncertainty, innovation needs more than creation-it needs intention. Adding intention to play gives us SCIENCE. Science isn't about sterile lab coats or unimaginative facts, but a way of perceiving much deeper than its methodology.
Innovation unites creativity and efficiency rather than pursuing them independently. This dialectic runs through nature and echoes other tensions: reality versus perception, past versus future usefulness, certainty versus uncertainty. The human brain embodies this balance between excitation and inhibition, maintaining readiness in any environment by constantly redefining normality through growing and pruning.
To create a successful innovation ecology, we must balance efficiency and creativity in dynamic equilibrium through development-the process of adding dimensionality called complexification. This intuitive approach starts simple, adds complexity, refines through trial and error, and repeats. Apple's iPhone development exemplifies this: they explored multiple designs simultaneously before settling on a third option they wouldn't have chosen without first complexifying their thinking.
Innovation follows a spiral pattern, never returning to its starting point but to a similar yet higher place. Successful companies practice "wedge innovation"-starting sharp with focused products that outcompete others, then widening their contextuality. As companies grow, they need multiple innovation spirals simultaneously underway with various products at different time-scales.
The probability of success equals a project's value divided by how long it takes. The optimal approach is to lead with creativity and follow with efficiency-then repeat. "Blue-sky thinking" belongs at the beginning, before deadlines loom, just as gene mutations benefit species before resource competition occurs.
Innovation occurs in the "space between"-the transitions or ecotomes where different domains meet. These transitions produce most biological innovation despite their inherent uncertainty. The most powerful innovation pairing is often the novice and expert working together. Undergraduates make breakthroughs precisely because "they don't know what can't be done."
True leadership in an uncertain world means guiding others into darkness rather than providing all the answers. A lab should function like a family where people feel both cared for and safe to experiment. Trust is fundamental, enabling fear to become courage rather than anger. The greatest leaders understand perception-working with the human brain rather than against it.
Physical spaces profoundly affect our perceptions and thinking. Research shows dimmer lighting increases creativity while brighter light improves analytical thinking. Similarly, ceiling height affects thinking styles-higher ceilings improve abstract thinking. Views of nature enhance generativity. Our surroundings shape our brains, so we must engineer our own ecology of innovation in our physical environments.
Chapter 12
Seeing Ourselves See
The author's goal was to foster courageous doubt about perceived reality, creating new perceptual pathways in both writer and reader. Rather than establishing fixed ways of being, the book aims to develop plastic, adaptable thinking that allows us to "see ourselves see." Our perception enables us to experience life usefully-a gift earned through evolution and learning from errors. Everything we experience exists only in our brains, projected outward onto the world like a three-dimensional screen.
We project everything we perceive onto the world, including other people's beauty, emotions, personalities, hopes and fears. While others exist objectively, our experience of them happens entirely within our own minds, arising from the space between us. We seek "character constancy" in others just as we look for color constancy in objects-trying to find predictable patterns that create security and enable trust. What we're searching for might be called their "soul"-their personal deviation from the average.
True listening requires "just stopping" our projected answers to let in questions and possibilities. Understanding how our thoughts and beliefs are shaped by our physical, social and cultural ecology inspires compassion, humility and courage to enter uncertainty despite fear of failure.
The author celebrates those who step into uncertainty despite knowing the real costs of failure-especially inspiring in older people who remain open despite life experience. People like Yossi Vardi, a technology investor who brings together interesting people in playful Kinnernet meetings and supports underprivileged children, exemplify this openness even in his seventies.
By understanding the principles of perception, we gain the power to actively change our future perceptions. We can see ourselves see-perceiving our perception-which is the essential step in seeing differently. This awareness gives us the freedom to deviate from our reflexive patterns and create new possibilities for ourselves and others.
