Central European Time

Malka Ceh, PhD, MSc, cNPA

Tag: evolutionary psychology

Your Mind, Your Genes, and the Parts You Don’t See
When you think about yourself, your own history offers the most immediate material. Your thoughts, feelings, motives, and peculiarities feel personal and private, shaped by what you have experienced and by the people who have known you. All of that is true. Yet your earliest memories are not the beginning of you.

Some parts of the self are far older than your biography. Long before your particular life commenced, evolution had furnished the human mind with capacities, sensitivities, appetites, and forms of feeling that would eventually appear in you. To understand yourself more fully, you must therefore look in two directions: toward the life only you have lived and toward the evolutionary inheritance you share with every other human being.

Mental traits as evolved traits: the gene-centric view

In The Selfish Gene, Richard Dawkins reframes how we think about evolution. Instead of seeing evolution as something that happens “for the good of the species” or even “for the good of the individual,” Dawkins focuses on genes as the fundamental units of natural selection. From this perspective, you are, biologically speaking, a survival vessel for your genes.

Genes have no minds or motives in the human sense. They are instructions that have survived across innumerable generations because they built organisms capable of surviving and reproducing. You do not exist for your genes in any moral sense; the metaphor describes the logic of selection. Traits that helped your ancestors live long enough to reproduce became more common, while the genetic variants involved continued into subsequent generations. Over millions of years, this process shaped your body and your mind.

You already know that physical characteristics such as eye color, bone density, and immune responses arise through genetic instructions meeting the conditions of development. The same is true of mental characteristics. Your capacity for language, sense of humor, inclination to worry, readiness to form attachments, and preferences for particular social arrangements are rooted in evolutionary history. Experience influences how these inherited tendencies are expressed, strengthened, restrained, or redirected. It works upon an architecture already present.

Mental traits are adaptations shaped by the recurrent problems faced by your ancestors. Memory preserved information about water, food, danger, social debts, and reliable companions. Fear detected threats and prepared the body to escape them. Attachment kept vulnerable offspring close to their caregivers. Jealousy protected relationships, reproductive opportunities, and resources from rivals. Humor displayed intelligence, eased social tension, and made its possessor more interesting company.

Your mental peculiarities are engineered responses refined through natural selection across immense stretches of time. Evolution supplied the ancient architecture. And then there was your mother.

Unconscious processes as evolved algorithms

Freud stated plainly that sex, your libido, drives all your thoughts and behavior, but you are not aware of most of it. He wasn’t thinking about genes, but evolutionary science agrees with his philosophy. Psychoanalysis acknowledges what fits with the evolutionary insight: your mental life is mainly unconscious and driven by reproductive forces.

You are aware only of the tip of the iceberg. Beneath awareness lies a complex, layered system of mental processes that guides your behavior, shapes your well-being, and influences the trajectory of your life. From an evolutionary perspective, these unconscious processes were structured, in part, by the biological pressures that selected certain patterns of feeling, thought, and behavior.

Your brain is not a blank slate that experience writes upon freely; it is an evolved organ, preloaded with tendencies. Those tendencies are flexible, though never infinitely so. When you react in ways that puzzle you—avoiding effort despite wanting to achieve something, feeling anxious in an apparently safe situation, or repeating a pattern that works against your declared intentions—you may be witnessing the downstream effects of mental circuits that evolved to solve problems in another time and place, for the mighty end goal of procreation. Your “irrational” reactions can be perfectly rational in their pursuit of nature’s purpose: the continuation of life.

Think of unconscious processes as evolved biological algorithms, rules of thumb your brain runs without consulting conscious thought. They operate rapidly and efficiently, taking precedence whenever the situation seems to demand it. A shadow moves in the grass, and you startle before identifying its source. A social bond appears threatened, and distress arrives even when the relationship itself has become harmful. You fall in love and suddenly feel prepared to nuke the life you have spent decades constructing.

These processes remain functional, although their original purpose may diverge from your subjective agenda or from the conditions of contemporary life. In a small interdependent group, exclusion could threaten protection, resources, and survival. Today, the apparent rejection may amount to an awkward exchange in a corridor, while the ancient distress circuitry responds with considerably greater gravity.

What you want deliberately is therefore not necessarily what your genes make you do. You may want to remain faithful to a relationship yet find yourself obsessively drawn to someone else because your mating circuitry has switched on. You may want a peaceful family gathering yet experience an irresistible surge of rivalry when a sibling receives parental approval. The conscious self states its intentions; older systems continue conducting their own affairs.

Where the universal becomes particular

Evolutionary knowledge can explain why human beings possess jealousy, fear, attachment, rivalry, sexual desire, and countless other mental capacities. It cannot tell us why one of them has arisen at this moment, around this person, in precisely this form. That question concerns the individual self.

Jealousy has an evolutionary function, yet no two people experience it in exactly the same way. In one person it may centre upon sexual exclusivity; in another, attention matters more. It may awaken memories of a favoured sibling, an unreliable parent, a former betrayal, or a childhood spent competing for scarce affection. The universal adaptation enters a private history and acquires a form specific to that person.

The same distinction applies to fear. The capacity is ancient and species-typical. The object, intensity, associations, and personal meaning develop through an individual life. One person freezes when confronted by anger; another moves immediately toward conflict. Both reactions draw upon inherited systems, although biography has arranged those systems differently.

Evolution provides the general design. Personal history determines much of its particular expression. Psychoanalytic inquiry works where these two histories meet: the ancient functions shared across the species and the singular constellation of memories, relationships, wishes, and meanings through which they appear in one self.

Bringing an inheritance into awareness

The traditional task of psychoanalysis is to make unconscious happenings conscious. This matters because you cannot simply will yourself to bypass millions of years of evolved mental architecture. You can, however, progressively make more of your unconscious mental life available to awareness.

The purpose need not begin with changing anything. A feeling may deserve attention because it is yours, because it has accompanied you for years without becoming intelligible, or because it reveals an unsuspected connection between parts of the self. Recognition gives the experience a place in your understanding, even when your behavior remains exactly as it was.

An old tree carries its history in its shape. Some branches follow the characteristic structure of the species; others have been redirected by shade, injury, weather, and the available light. Close attention reveals how inherited form and singular circumstance produced this particular tree. The self also carries its several histories at once, visible in tendencies that seem natural, reactions that arrive without invitation, and associations whose origins have never been followed.

Once you understand that your mind is the product of both personal and evolutionary history, several aspects of the self come into clearer view:
- You place individual difficulties within a longer human history. Anxiety is an evolved sensitivity to possible threat; jealousy protects valued bonds; grief reflects the cost of attachment. Their presence has an intelligible biological history.
- You distinguish the universal capacity from its particular expression. Evolution explains why a mental system exists, while your biography helps explain why it responds to these people, situations, and meanings.
- You recognise that contradictory motives may arise from different evolved systems, each pursuing an ancient purpose. The conflict itself becomes another feature of the self to know.
- You encounter the human and the idiosyncratic together. You carry the general architecture of a human mind, configured through experiences no one else has had in quite the same arrangement.
Awareness may eventually change the parameters of choice. When you can anticipate a reaction and understand something of its origin, more responses may become available. Yet change is only one possible consequence. The primary movement is from an unexplained reaction toward a closer acquaintance with the self that produces it.

Following the details

Awareness rarely arrives in one magnificent revelation. It develops through accumulated recognitions: a feeling noticed before it disappears, a thought allowed to finish, a memory that returns beside an apparently unrelated subject, or a reaction whose intensity seems to have more to say.

In psychoanalytic inquiry, we follow thoughts, feelings, fantasies, memories, and private associations without requiring them to justify their appearance. Repetition attracts attention. A certain tone of voice always makes you defensive. A particular kind of praise produces discomfort instead of pleasure. Someone with an otherwise insignificant resemblance provokes immediate dislike. An old song saddens you before you can remember why.

Each detail offers a possible passage. One association leads to another; an emotion introduces a memory; a familiar reaction reveals an older expectation. What first appeared incidental begins to show its relations with other elements of the self.

Conceptual knowledge can suggest where a passage might lead. Evolutionary theory may alert us to rivalry, attachment, status, mating, protection, or care. Psychoanalytic understanding may draw attention to conflict, defence, identification, wish, and repetition. The meaning itself emerges through the person’s experience. Theories give us routes to consider; the self provides the territory.

Recognition deepens through return. The first appearance of a pattern may seem coincidental. Its recurrence under different circumstances begins to reveal its shape. Eventually, you may recognise the feeling before it has completed its familiar course and understand which ancient system has stirred, which personal history it carries, and why this moment has awakened it.

Most of the mind continues along well-worn paths outside awareness. Self-knowledge allows you to notice where those paths begin, what repeatedly draws you toward them, and which parts of your history travel beside you. The resulting portrait includes both the life only you have lived and the far older history moving through you.

What nature intended as a survival and reproductive system can become an object of deliberate reflective awareness. Human beings can recognise the forces that shaped them, think about the purposes those forces continue to pursue, and examine the singular forms they have acquired in one life. In doing so, we accomplish something no other organism has ever done: we make the ancient operations of life a subject of self-knowledge.
August 22, 2026
The Ultimate Prequel: How You Went From Puddle to Person

You may be accustomed to seeing me rewind the clock only so far. We usually stop around 300,000 years ago to check in on early Homo sapiens. Occasionally, when we need to examine the ancestral foundations of the mammalian brain, we travel back roughly 200 million years. Today, we are going spectacularly overboard. We are setting the time machine to four billion years ago.

Our destination is the moment when ordinary, nonliving matter somehow decided to become alive. It remains one of the greatest mysteries science has ever attempted to solve.

It is also the earliest prequel to the self. Long before consciousness, memory, feeling, or thought could appear, chemistry had to acquire several remarkable capacities: preserving an organised pattern, making another version of it, and maintaining a distinction between itself and the surrounding world. Before there could be a self that knew itself, there had to be something capable of keeping itself going.

The real estate nightmare of early earth

To understand how life emerged, we have to look at the young Earth and the raw materials of reality. The universe is, at its most basic, an immense collection of particles. Left entirely to themselves in a closed system, physical processes tend toward equilibrium as energy disperses and the number of possible arrangements increases. In physics, this direction of travel is described through entropy.

If you have ever cleaned your house only to find it in disarray three days later, you are intimately acquainted with entropy’s general disposition.

Early Earth, however, was anything but closed or quiet. Sunlight, geothermal heat, electrical storms, volcanic activity, and chemical gradients continuously supplied energy. Under such conditions, local order could arise while the overall movement of entropy continued undisturbed. Modern origin-of-life research therefore studies chemistry operating far from thermodynamic equilibrium, where energy flows can sustain organised structures and reactions.

Chemistry also has rules. Some particles attract one another, others repel, and particular combinations settle into stable arrangements called molecules. The young Earth was rich in water, minerals, gases, and organic compounds produced on the planet or delivered by meteorites.

We do not know exactly where the decisive chemistry occurred. Proposed settings include hydrothermal vents, mineral surfaces, volcanic pools, shorelines, and bodies of water exposed to repeated wet–dry or hot–cold cycles. For the purpose of our journey, picture a chemically rich puddle on the young Earth, periodically heated, cooled, concentrated, and diluted. It contained countless molecular structures bumping into one another and doing nothing that a biologist would yet call alive.

Then some of those structures began to preserve patterns.

When chemistry acquired a memory

One leading account of life’s origin proposes that RNA-like molecules, or chemical predecessors with similar properties, formed chains capable of guiding the construction of complementary chains. RNA is especially interesting because it can carry information and participate in chemical reactions, two functions that modern cells distribute between DNA and proteins. This possibility lies at the centre of the RNA-world hypothesis.

Imagine one of these early chains floating in our puddle. Its exposed chemical edges acted like molecular Velcro, attracting complementary building blocks from the surrounding water. As the blocks lined up along the original chain, they linked to one another and formed a matching sequence.

A change in the environment—perhaps heating, drying, or another alteration in chemical conditions—separated the two chains. The original template and its new counterpart could then attract further building blocks. One became two. Two became four. Four became eight.

The molecules had acquired an extraordinary freak property: they could make copies of themselves.

The precise route remains unresolved, and no one has yet reconstructed the complete passage from simple prebiotic chemistry to the first living system. Yet template-directed replication gives us a plausible glimpse of the decisive transition. Matter could now preserve information beyond the temporary existence of one molecule. Chemistry had acquired a primitive memory.

The microscopic arms race

Richard Dawkins calls such self-copying molecules replicators. Once replicators exist, a particular logic takes over. Anything that makes enduring copies of itself will become more numerous than chemistry that produces no descendants.

The supply of raw materials was finite. As replicators multiplied, the chemical building blocks they required became scarcer. Replication became competition.

Copies were also imperfect. Some errors produced unstable or ineffective molecules. Others made little difference. Every so often, however, a variation gave its carrier an advantage. One replicator might remain intact for longer. Another might copy itself more rapidly or with greater accuracy. A third might appropriate fragments from rival molecules and use them as raw material.

Replicators carrying advantageous mutations multiplied more successfully. Their descendants inherited the improved feature, occasional copying errors introduced further variations, and selection continued. Chemistry had entered an arms race over persistence, fidelity, and access to resources.

Nothing needed to understand what it was doing. The logic followed automatically from replication with variation under finite conditions. Molecules that survived and copied themselves remained in the world; the others disappeared from the sequence.

The first inside and outside

Free-floating replicators had a problem. Their useful components dispersed into the environment, favourable reactions occurred only by chance, and anything they produced could drift away or be appropriated by competitors. A replicator required more than a good sequence. It needed somewhere for its chemistry to remain together.

Certain fatty molecules offered an answer. One end of such a molecule is attracted to water, while the other avoids it. When enough of these molecules encounter one another in water, they spontaneously arrange themselves into sheets and hollow spheres. No architect is required. Their chemical properties produce a membrane.

Some spheres would have enclosed replicators and other useful molecules by chance. These primitive compartments, commonly called protocells, created a separate chemical interior. Raw materials could enter, reactions could occur at higher concentrations, and their products could remain near one another. Researchers continue to investigate how RNA replication might have operated inside simple fatty-acid vesicles, whose membranes could grow and divide under plausible early-Earth conditions.

The membrane changed the unit upon which selection could act. Success now depended upon a whole collection of chemical processes remaining viable together. A protocell that acquired resources efficiently, maintained its internal conditions, and reproduced its contents could outnumber less capable compartments.

This protocell was still unimaginably distant from a psychological self. It nevertheless introduced the first material distinction upon which every later self would depend: an inside that had to be maintained against an outside.

Once an inside existed, its conditions required regulation. Useful substances had to be admitted, harmful conditions resisted, waste removed, damage repaired, and energy continually obtained. The earliest biological individuality arose from this sustained difference between a living unit and everything around it.

Every cell in your body still reenacts that ancient distinction across its membrane. Your psychological self appeared billions of years later, supported by an organism that had become extraordinarily accomplished at preserving itself, detecting changes, and responding to whatever crossed its boundaries.

And that’s why you have to pay taxes

Once replication, mutation, selection, and bounded individuality had entered the world, evolution had time to become truly excessive.

Protocells became cells. Some cells learned to exploit sunlight; others consumed chemical compounds or one another. Cells incorporated former rivals and turned them into indispensable internal partners. Separate cells began cooperating in larger bodies. Multicellular organisms developed specialised tissues, nervous systems, memory, emotion, consciousness, language, governments, and eventually tax authorities.

And there you have it. Life, from the earliest self-copying chemistry to the brain currently reading this sentence, is matter that learned to preserve and reproduce its organisation under conditions of relentless competition.

This is the ultimate prequel to everything we usually discuss. Long before thoughts, feelings, wishes, and motives appeared, your most distant ancestors faced the ancient requirements of life: remain intact, obtain energy, detect opportunity and danger, and carry their organisation into another generation. Each successful lineage added new ways of accomplishing those tasks. Nervous systems eventually brought the surrounding world into the organism as perception; affect gave biological conditions a felt significance; consciousness made a small part of this immense activity available to experience.

Your existence rests upon an uninterrupted sequence of successful replication extending across approximately four billion years. Every organism in that sequence preserved the conditions necessary for another generation to follow. The continuity reached your parents, then you, and now supports a mind capable of examining the process that produced it.

Long before a mind could ask who it was, life had to establish an inside, preserve it, and respond to whatever approached from outside. Four billion years later, one descendant of that first organisation can turn its attention toward itself and examine what the ancient project has become.

August 22, 2026
Evolutionary Psychology of Faith: A Survival Feature or a Mind Bug?
If religion were a person, how are things between you two? Are you even on speaking terms? Are you just awkwardly tolerating each other at family gatherings, giving a polite nod from across the room? Or do you cross to the other side of the street when you see them coming?
Our relationship has moved through distinct eras. When I was younger, I had a more …. let’s say fierce attitude. Then, for a time, I mostly just forgot about it, and gradually became more tolerant on the rare occasions when I interacted with a religious person. Things were chill.

Until last year, when religion crashed into my life like an intense friend from middle school who suddenly moved in next door. You know the type that you hadn’t thought about in twenty years, but suddenly they are knocking on your door with beer and want to discuss deeply personal stuff when you run into each other in the hallway. You find yourself frantically messaging old classmates to figure out what this odd cookie’s deal is and how to handle their now-constant presence.

Religion … has many faces. At the individual level, it can offer comfort. It is a ready-made antidote to existential dread. It comes with a community that secures a sense of belonging. Societally, it is the ultimate glue, aligning thousands of strangers under a shared moral canopy and a great potential to mobilize them for common causes. Good or bad causes. Meaning, the shadows are dark. Societally, the exact mechanism that binds an “in-group” together inherently creates an “out-group.” The cohesive glue easily hardens into a weapon for tribal conflict, xenophobia, and systemic oppression. On an individual level, it can breed deep-seated shame, massive biases, and the severe suppression of one’s real self.

You want to know how a cognitive phenomenon with such volatile, double-edged outcomes evolves in the first place? I got you. Basically, we have two models that explain why all human societies persistently exhibit this trait.

The Evolutionary Advantage or The “It’s a Feature” Camp

The first model looks at religion as a straightforward adaptation. It argues that religion evolved because it actively helped humans survive, cooperate, and reproduce.

While Darwin (1871), in The Descent of Man, and even early sociologists like Émile Durkheim (1912), in The Elementary Forms of the Religious Life, theorized the social binding function of religion, the modern evolutionary framework was developed by evolutionary biologist David Sloan Wilson and anthropologist Richard Sosis. in his Darwin’s cathedral: Evolution, religion, and the nature of society, Sloan Wilson is focusing on group-level adaptation. Group-level adaptation is the idea that evolution doesn’t just reward the fittest selfish individuals, but actually favors entire groups that figure out how to operate together as a single, cooperative unit. Richard Sosis, on the other hand, focuses on costly signaling, which is basically the ultimate lie-detector test for loyalty. It is the idea that making people do difficult, painful, or time-consuming things proves to the rest of the group that they aren’t faking their commitment. So basically, Wilson and Sosis argue that religion solves the free-rider problem. What is that?

Humans didn’t conquer the planet by being the fastest or the strongest. We rule the world because of our unmatched capacity for teamwork. From Darwin’s early notes to modern scholars like Michael Tomasello (“shared intentionality” in Becoming Human: A Theory of Ontogeny), Joseph Henrich (“the collective brain” in The Secret of Our Success: How Culture Is Driving Human Evolution, Domesticating Our Species, and Making Us Smarter), and Brian Hare (“survival of the friendliest” in Survival of the Friendliest: Understanding Our Origins and Rediscovering Our Common Humanity), the scientific consensus is that extreme cooperation is sapiens’ ultimate evolutionary superpower. But cooperation is risky. Groups are always vulnerable to “free riders”: the guys who happily eat the mammoth meat but conveniently sprain an ankle when it is time to do the actual hunting. Religions solve this.

A shared belief in an all-seeing, punishing deity acts like an invisible police force, keeping antisocial behavior in check even when nobody is looking. On top of that, religion demands “costly signaling.” Think of fasting, painful rites, strict dietary laws, or time-consuming prayers. If you are willing to endure all of that, you prove your absolute loyalty to the group. A free rider simply won’t pay that high a cost. The result is a highly cohesive, fiercely loyal collective that easily outcompetes fragmented, non-religious groups. Religion, in short, served the host.
Jonathan Haidt, in The Righteous Mind: Why Good People Are Divided by Politics and Religion, expands on this framework by introducing the concept of the “hive switch.” He argues that religious rituals, like synchronized chanting or dancing, temporarily shut down the annoying, self-serving ego. They allow individuals to merge seamlessly into a larger collective organism, vastly improving the group’s chances of survival. Additionally, Ara Norenzayan, in Big Gods: How Religion Transformed Cooperation and Conflict, developed the “big gods” variant. He theorizes that as human settlements grew from small bands into large agricultural societies, kin-based trust broke down. You cannot personally know everyone in a city. Belief in “big gods”, omniscient, moralizing deities, was the necessary evolutionary bridge that allowed thousands of anonymous strangers to trust each other and build civilizations.

It all sounds incredibly elegant, doesn’t it? Like religion is the ultimate evolutionary lifehack for building societies. But there is a second camp of thinkers who look at this exact same phenomenon and see something different. What if we are giving religion way too much credit for being “helpful”? What if it isn’t a tool that we use, but a tool that uses us?

The Parasitic Meme or The “It’s a Bug” Camp

This model kind of flips the script. It argues that religion is a byproduct of human cognitive workings. It acts as a cultural parasite. In this view, religion does not exist to serve the human host; it exists solely to replicate itself.

To understand this, you have to look at ideas as replicators: memes. Before the internet hijacked the word, a meme was originally defined as the cultural equivalent of a gene. It is a unit of information—like a fashion trend or a religious concept—that spreads from brain to brain.

Just like genes, memes mutate, compete for survival, and replicate. Think of a juicy piece of gossip. Someone tells a story, and as it spreads from person to person, people instinctively embellish the details to make it just a little spicier. That is memetic mutation. Eventually, the most shocking, dramatic version of the rumor grabs everyone’s attention, completely crowding out the boring truth. That is memetic competition. And because the new, embellished story is now so incredibly scandalous, you simply cannot resist passing it on to your friends. That is replication.

But why are some ideas so incredibly sticky? Why did you instantly forget a math formula, but remember your friend’s phone number from the 90s to this day? Because the most successful memes survive by actively hacking your deepest evolutionary hardware. Think about an outrageous clickbait headline, or one of those old chain letters that threatened you with bad luck if you didn’t forward it. These ideas survive because they hijack your primal instincts, like your need for connection, your deep-seated fear of danger, your desire for social status, or your tribal outrage. A meme does not care if it is factually true, and it certainly does not care if it is good for your mental health. It only cares about being copied. By triggering your highest-arousal emotions, it turns your own biology into its personal copying machine.

Who came up with the concept, by the way? Dawkins, of course. He coined the term “meme” in 1976, and in 1993 he explicitly formalized the parasitic framework in his essay Viruses of the Mind. He explained that just as a biological virus latches onto a vulnerable cell, a mind virus exploits a vulnerable brain. And religion is a highly contagious “memeplex”: a clustered group of cooperative memes that hijacks your pre-existing cognitive hardware.

Think of, for example, the survival mechanisms of a human child. Children evolved a necessary cognitive trait: absolute, unquestioning trust in authority figures. If a parent tells a toddler, “Don’t eat those red berries; they are poisonous,” a kid who demands proof probably won’t survive the afternoon. We are biologically hardwired to absorb warnings from authorities as absolute truth. The religious memeplex sneaks right through this open door. The meme “believe in this specific God or you will burn in hell” hijacks the exact same survival hardware as “don’t eat these berries”.

But a successful virus doesn’t just infect; it protects itself. The religious memeplex bundles itself with brilliant, built-in defense memes. One meme says, “Faith without evidence is the highest virtue.” Another meme says, “Doubt is a punishable sin.” A third meme says, “You must convert others to save them.” Together, these ideas act like a highly evolved virus. They hijack human psychology to aggressively ensure their own survival and transmission, sometimes actively harming the host’s actual biological fitness in the process, like demanding lifelong celibacy or encouraging martyrdom.

In Breaking the Spell, Daniel Dennett elaborates the idea of “domestication.” He argues that early animistic beliefs were “wild” memes. Over time, human institutions domesticated these memes, engineering organized religions that act like highly evolved viruses, complete with sophisticated defense mechanisms against skepticism. In The Meme Machine, Susan Blackmore focused on how the religious memeplex uses psychological immune-system overrides. She highlighted how religious memes bundle themselves with instructions that actively forbid questioning, think of maxims like “faith is a virtue” or “doubt is a sin.” This ensures the parasite is hardly eradicated by rational thought.

The Verdict: A Feature, a Bug, or Both?

The reality is, biology is rarely neat and tidy. These two models don’t necessarily have to cancel each other out. It’s very possible that faith started out as a crucial evolutionary feature, the social glue that allowed our ancestors to survive, cooperate, and build cities. But once that cognitive infrastructure was in place, it became the perfect, warm host environment for parasitic memes to move in, mutate, and take over.

We are walking around with ancient brains running legacy software. Whether it’s a brilliant survival tool that outlived its original purpose or a mind virus that hacked our childhood trust, the result is the same: the religious memeplex is deeply embedded in the human operating system.

So, how do these explanations affect your attitude toward religion? How will you handle the religious memeplex when it shows up on your front porch? Will you lean into pure tolerance, accepting it as an inevitable, perhaps even useful, quirk of human nature? Roll your eyes and dismiss it? Or will you go on the offensive and actively dismantle the dogma wherever you see it?

References
- Blackmore, S. (1999). The meme machine. Oxford University Press.
- Darwin, C. (1871). The descent of man, and selection in relation to sex. John Murray.
- Dawkins, R. (1976). The selfish gene. Oxford University Press.
- Dawkins, R. (1993). Viruses of the mind. In B. Dahlbom (Ed.), Dennett and his critics: Demystifying mind (pp. 13–27). Blackwell.
- Dennett, D. C. (2006). Breaking the spell: Religion as a natural phenomenon. Viking Penguin.
- Durkheim, E. (1912). The elementary forms of the religious life. J. W. Swain, Trans.
- Haidt, J. (2012). The righteous mind: Why good people are divided by politics and religion. Pantheon Books.
- Harari, Y. N. (2014). Sapiens: A brief history of humankind. Harvill Secker.
- Hare, B., & Woods, V. (2020). Survival of the friendliest: Understanding our origins and rediscovering our common humanity. Random House.
- Henrich, J. (2015). The secret of our success: How culture is driving human evolution, domesticating our species, and making us smarter. Princeton University Press.
- Hrdy, S. B. (2009). Mothers and others: The evolutionary origins of mutual understanding. Harvard University Press.
- Norenzayan, A. (2013). Big gods: How religion transformed cooperation and conflict. Princeton University Press.
- Sosis, R. (2004). The adaptive value of religious ritual. American Scientist, 92(2), 166–172.
- Tomasello, M. (2009). Why we cooperate. MIT Press.
- Wilson, D. S. (2002). Darwin’s cathedral: Evolution, religion, and the nature of society. University of Chicago Press.
June 7, 2026