Genetic Mutation Quotes

If you ever meet a guy and you fall in love with him, but because of some weird genetic mutation he doesn't seem to return the feeling?... Wear that dress.

Only cells that had been transformed by a virus or a genetic mutation had the potential to become immortal.

Vampires were hardly the monsters we were made out to be in fairy tales and television shows. We were hardly different from humans, but for the genetic mutation, fangs, silvering eyes, and periodic penchant for blood. What? I said hardly different.

Our lack of community is intensely painful. A TV talk show is not community. A couple of hours in a church pew each Sabbath is not community. A multinational corporation is neither a human nor a community, and in the sweatshops, defiled agribusiness fields, genetic mutation labs, ecological dead zones, the inhumanity is showing. Without genuine spiritual community, life becomes a struggle so lonely and grim that even Hillary Clinton has admitted "it takes a village".

If we are artists- hell, whether or not we're artists- it is our job, our responsibility, perhaps even our sacred calling, to take whatever life has handed us and make something new, something that wouldn't have existed if not for the fire, the genetic mutation, the sick baby, the accident.

The gravitational waves of the first detection were generated by a collision of black holes in a galaxy 1.3 billion light-years away, and at a time when Earth was teeming with simple, single-celled organisms. While the ripple moved through space in all directions, Earth would, after another 800 million years, evolve complex life, including flowers and dinosaurs and flying creatures, as well as a branch of vertebrates called mammals. Among the mammals, a sub-branch would evolve frontal lobes and complex thought to accompany them. We call them primates. A single branch of these primates would develop a genetic mutation that allowed speech, and that branch—Homo Sapiens—would invent agriculture and civilization and philosophy and art and science. All in the last ten thousand years. Ultimately, one of its twentieth-century scientists would invent relativity out of his head, and predict the existence of gravitational waves. A century later, technology capable of seeing these waves would finally catch up with the prediction, just days before that gravity wave, which had been traveling for 1.3 billion years, washed over Earth and was detected. Yes, Einstein was a badass.

All health, beauty, intelligence, and social grace has been teased from a vast butcher’s yard of unbounded carnage, requiring incalculable eons of massacre to draw forth even the subtlest of advantages. This is not only a matter of the bloody grinding mills of selection, either, but also of the innumerable mutational abominations thrown up by the madness of chance, as it pursues its directionless path to some negligible preservable trait, and then — still further — of the unavowable horrors that ‘fitness’ (or sheer survival) itself predominantly entails. We are a minuscule sample of agonized matter, comprising genetic survival monsters, fished from a cosmic ocean of vile mutants, by a pitiless killing machine of infinite appetite. (This is still, perhaps, to put an irresponsibly positive spin on the story, but it should suffice for our purposes here.)

People of all faiths are responsible to help the weak, the downtrodden, the sick, and the helpless, especially children. And of all the religions in the world, Christians are the only ones that are commanded not to judge, yet we do every day -- gay people, ethnicities different from our own, people in mixed relationships, people with gifts they were born with, power they were born with, genetic mutations they were born with, illnesses of the brain and body. I've got a little girl's mother to save, and, yes, she's a witch. Are you gonna make it possible for me to save her?

Random mutations much more easily debilitate genes than improve them, and that this is true even of the helpful mutations. Let me emphasize, our experience with malaria’s effects on humans (arguably our most highly studied genetic system) shows that most helpful mutations degrade genes. What’s more, as a group the mutations are incoherent, meaning that they are not adding up to some new system. They are just small changes - mostly degradative - in pre-existing, unrelated genes. The take-home lesson is that this is certainly not the kind of process we would expect to build the astonishingly elegant machinery of the cell. If random mutation plus selective pressure substantially trashes the human genome, why should we think that it would be a constructive force in the long term? There is no reason to think so.

There are lots of things I don't understand - say, the latest debates over whether neutrinos have mass or the way that Fermat's last theorem was (apparently) proven recently. But from 50 years in this game, I have learned two things: (1) I can ask friends who work in these areas to explain it to me at a level that I can understand, and they can do so, without particular difficulty; (2) if I'm interested, I can proceed to learn more so that I will come to understand it. Now Derrida, Lacan, Lyotard, Kristeva, etc. -- even Foucault, whom I knew and liked, and who was somewhat different from the rest -- write things that I also don't understand, but (1) and (2) don't hold: no one who says they do understand can explain it to me and I haven't a clue as to how to proceed to overcome my failures. That leaves one of two possibilities: (a) some new advance in intellectual life has been made, perhaps some sudden genetic mutation, which has created a form of "theory" that is beyond quantum theory, topology, etc., in depth and profundity; or (b) ... I won't spell it out.

Professor Robinson was revealing, not creating, the anger. The fear. And yes, perhaps even the cowardice they kept hidden away. She was like some genetic mutation awakening illnesses that would have normally lain dormant.

Just ten years ago, probably the most prominent atheist of the twentieth century, Antony Flew, concluded that a God must have designed the universe. It was shocking news and made international headlines. Flew came to believe that the extraordinarily complex genetic code in DNA simply could not be accounted for naturalistically. It didn’t make logical sense to him that it had happened merely by chance, via random mutations. It is a remarkable thing that Flew had the humility and intellectual honesty to do a public about-face on all he had stood for and taught for five decades.

At least 15 percent of human females possess a genetic mutation that gives them an extra (fourth) type of color photoreceptor—and this allows them to discriminate between colors that look identical to the majority of us with a mere three types of color photoreceptors.

In microbiology the roles of mutation and selection in evolution are coming to be better understood through the use of bacterial cultures of mutant strains.

Distichiasis. Your eyelashes. A genetic mutation that causes double rows of lashes

After years of disbelief and argument from other scientists, Hayflick’s paper on cell limits became one of the most widely cited in his field. It was an epiphany: scientists had been trying for decades to grow immortal cell lines using normal cells instead of malignant ones, but it had never worked. They thought their technique was the problem, when in fact it was simply that the lifespan of normal cells was preprogrammed. Only cells that had been transformed by a virus or a genetic mutation had the potential to become immortal. Scientists

Only cells that had been transformed by a virus or a genetic mutation had the potential to become immortal. Scientists knew from studying HeLa that cancer cells could divide indefinitely, and they’d speculated for years about whether cancer was caused by an error in the mechanism that made cells die when they reached their Hayflick Limit. They also knew that there was a string of DNA at the end of each chromosome called a telomere, which shortened a tiny bit each time a cell divided, like time ticking off a clock. As normal cells go through life, their telomeres shorten with each division until they’re almost gone. Then they stop dividing and begin to die. This process correlates with the age of a person: the older we are, the shorter our telomeres, and the fewer times our cells have left to divide before they die. By the early nineties, a scientist at Yale had used HeLa to discover that human cancer cells contain an enzyme called telomerase that rebuilds their telomeres. The presence of telomerase meant cells could keep regenerating their telomeres indefinitely.

If a relative has suffered Ovarian or Breast Cancer, get the genetic screening. It saves lives.

The coming genetic mutation from homo sapiens into homo sanctus will bring wave after wave of enlightened children into the world who will seek only that which is built on natural cosmic laws, not the old systems which were rooted in fear and competition.

cultural change occurs whenever a new meme is introduced and catches on. It might be romanticism or double-entry book-keeping, chaos theory or Pokemon. So where in the world do new memes come from? sometimes they spring full-blown from the brains of artists or scientists, advertising copywriters or teenagers. often a process of mutation is involved in the creation of a new meme, in much the same way that mutations in natural environment can lead to useful new genetic traits.

We hold these truths to be self-evident, that all men are created equal, that they are endowed by their Creator with certain unalienable rights, that among these are life, liberty, and the pursuit of happiness. According to the science of biology, people were not ‘created’. They have evolved. And they certainly did not evolve to be ‘equal’. The idea of equality is inextricably intertwined with the idea of creation. The Americans got the idea of equality from Christianity, which argues that every person has a divinely created soul, and that all souls are equal before God. However, if we do not believe in the Christian myths about God, creation and souls, what does it mean that all people are ‘equal’? Evolution is based on difference, not on equality. Every person carries a somewhat different genetic code, and is exposed from birth to different environmental influences. This leads to the development of different qualities that carry with them different chances of survival. ‘Created equal’ should therefore be translated into ‘evolved differently’. Just as people were never created, neither, according to the science of biology, is there a ‘Creator’ who ‘endows’ them with anything. There is only a blind evolutionary process, devoid of any purpose, leading to the birth of individuals. ‘Endowed by their creator’ should be translated simply into ‘born’. Equally, there are no such things as rights in biology. There are only organs, abilities and characteristics. Birds fly not because they have a right to fly, but because they have wings. And it’s not true that these organs, abilities and characteristics are ‘unalienable’. Many of them undergo constant mutations, and may well be completely lost over time. The ostrich is a bird that lost its ability to fly. So ‘unalienable rights’ should be translated into ‘mutable characteristics’. And what are the characteristics that evolved in humans? ‘Life’, certainly. But ‘liberty’? There is no such thing in biology. Just like equality, rights and limited liability companies, liberty is something that people invented and that exists only in their imagination. From a biological viewpoint, it is meaningless to say that humans in democratic societies are free, whereas humans in dictatorships are unfree. And what about ‘happiness’? So far biological research has failed to come up with a clear definition of happiness or a way to measure it objectively. Most biological studies acknowledge only the existence of pleasure, which is more easily defined and measured. So ‘life, liberty, and the pursuit of happiness’ should be translated into ‘life and the pursuit of pleasure’. So here is that line from the American Declaration of Independence translated into biological terms: We hold these truths to be self-evident, that all men evolved differently, that they are born with certain mutable characteristics, and that among these are life and the pursuit of pleasure.

Did you know that only a tiny minority of viruses cause illness in humans? No one knows how many viruses there are, but their real role, when you get right down to it, is to aid in mutations, to create diversity among life forms. I've read a lot of books on the subject-when you don't need much sleep you have a lot of time to read-and I can tell you that if it weren't for viruses, mankind would never have evolved on this planet. Some viruses get right inside the DNA and change your genetic code, did you know that? And no one can say for sure that HIV, for example, won't one day prove to have been rewriting our genetic code in a way that's essential to our survival as a race. I'm a man who consciously commits murders and scares the hell out of people and makes them reconsider everything, so I'm definitely malignant, yet I think I play a necessary role in this world.

it has been estimated that viruses account for 30 percent of all genetic mutations since our species’ divergence from chimpanzees.[25]

Two million years ago, genetic mutations resulted in the appearance of a new human species called Homo erectus.

By ignoring our health and consuming unhealthy products, we are unknowingly contributing to the genetic mutation of the human species.

accidental genetic mutations changed the inner wiring of the brains of Sapiens, enabling them to think in unprecedented ways and to communicate using an altogether new type of language.

As far as we can tell, changes in social patterns, the invention of new technologies and the settlement of alien habitats resulted from genetic mutations and environmental pressures more than from cultural initiatives.

The difference between the Platonic theory and the morphic-resonance hypothesis can be illustrated by analogy with a television set. The pictures on the screen depend on the material components of the set and the energy that powers it, and also on the invisible transmissions it receives through the electromagnetic field. A sceptic who rejected the idea of invisible influences might try to explain everything about the pictures and sounds in terms of the components of the set – the wires, transistors, and so on – and the electrical interactions between them. Through careful research he would find that damaging or removing some of these components affected the pictures or sounds the set produced, and did so in a repeatable, predictable way. This discovery would reinforce his materialist belief. He would be unable to explain exactly how the set produced the pictures and sounds, but he would hope that a more detailed analysis of the components and more complex mathematical models of their interactions would eventually provide the answer. Some mutations in the components – for example, by a defect in some of the transistors – affect the pictures by changing their colours or distorting their shapes; while mutations of components in the tuning circuit cause the set to jump from one channel to another, leading to a completely different set of sounds and pictures. But this does not prove that the evening news report is produced by interactions among the TV set’s components. Likewise, genetic mutations may affect an animal’s form and behaviour, but this does not prove that form and behaviour are programmed in the genes. They are inherited by morphic resonance, an invisible influence on the organism coming from outside it, just as TV sets are resonantly tuned to transmissions that originate elsewhere.

The most commonly believed theory argues that accidental genetic mutations changed the inner wiring of the brains of Sapiens, enabling them to think in unprecedented ways and to communicate using an altogether new type of language.

Activating or inactivating any single gene, he postulated, produced only the first steps toward carcinogenesis. Cancer’s march was long and slow and proceeded though many mutations in many genes over many iterations. In genetic terms, our cells were not sitting on the edge of the abyss of cancer. They were dragged toward that abyss in graded, discrete steps.

Let us accept the possibility that there is, at death, not an abrupt cessation of energy, rather a dispersal. This seems more than reasonable to me. Mind you, I've owned a series of old cars, and I"m used to turning off the motor only to experience a series of rumblings and explosions that would shame many a volcano. This is the sort of thing I'm conceptualizing, a kind of clunky running-on. And just as some cars are more susceptible to this behavior, so people vary in the length of time, and the force with which, their energy sputters and gasps. . . My example is overly dramatic, but it is not wholly unreasonable, and it serves to make this genetic mutation a player at the evolutionary table. You see what I'm getting at: a biologically and evolutionally sound model for the soul. (I didn't say I'd achieved it.) Let's conceive of the soul as an aura that human beings wear on their backs, cumberson as a tortoise's carapace. Some are larger than others.

The appearance of new ways of thinking and communicating, between 70,000 and 30,000 years ago, constitutes the Cognitive Revolution. What caused it? We’re not sure. The most commonly believed theory argues that accidental genetic mutations changed the inner wiring of the brains of Sapiens, enabling them to think in unprecedented ways and to communicate using an altogether new type of language. We might call it the Tree of Knowledge mutation. Why did it occur in Sapiens DNA rather than in that of Neanderthals? It was a matter of pure chance, as far as we can tell. But it’s more important to understand the consequences of the Tree of Knowledge mutation than its causes. What was so special about the new Sapiens language that it enabled us to conquer the world?* It was not the first language. Every animal has some kind of language.

The appearance of new ways of thinking and communicating, between 70,000 and 30,000 years ago, constitutes the Cognitive Revolution. What caused it? We’re not sure. The most commonly believed theory argues that accidental genetic mutations changed the inner wiring of the brains of

When I learned my mom was going to die of cancer at the age of forty-five, I felt the same way. I didn’t even believe in God, but I still felt that he owed me something. I had the gall to think How dare he? I couldn’t help myself. I’m a selfish brute. I wanted what I wanted and I expected it to be given to me by a God in whom I had no faith. Because mercy had always more or less been granted me, I assumed it always would be. But it wasn’t. It wasn’t granted to my friend whose eighteen-year-old daughter was killed by a drunk driver either. Nor was it granted to my other friend who learned her baby is going to die of a genetic disorder in the not-distant future. Nor was it granted to my former student whose mother was murdered by her father before he killed himself. It was not granted to all those people who were in the wrong place at the wrong time when they came up against the wrong virus or military operation or famine or carcinogenic or genetic mutation or natural disaster or maniac. Countless people have been devastated for reasons that cannot be explained or justified in spiritual terms. To do as you are doing in asking If there were a God, why would he let my little girl have to have possibly life-threatening surgery?— understandable as that question is—creates a false hierarchy of the blessed and the damned. To use our individual good or bad luck as a litmus test to determine whether or not God exists constructs an illogical dichotomy that reduces our capacity for true compassion. It implies a pious quid pro quo that defies history, reality, ethics, and reason. It fails to acknowledge that the other half of rising—the very half that makes rising necessary— is having first been nailed to the cross. That

Other mysteries have been untangled. Redheads are known to feel pain especially acutely. This confused researchers until someone realized that the same genetic mutation that causes red hair also increases sensitivity to pain. One study found that redheaded patients require about 20 percent more general anesthesia than brunettes.

The combined effects of mutation, natural selection and the random process of genetic drift cause changes in the composition of a population. Over a sufficiently long period of time, these cumulative effects alter the population’s genetic make-up, and can thus greatly change the species’ characteristics from those of its ancestors.

The Ethics of Genetic Control. “As we learn to direct mutations medically, we should do so. Not to control when we can is immoral.

CRISPR offers the greatest hope to treat monogenic genetic diseases—those caused by a single mutated gene.

He believed that the mutations were manifestations of the ancient past he had written about—evidence of a genetic code that was not completely eradicated.

Population genetics calculations suggest that in 5 million years (one million years longer than the alleged time between Ambulocetus and Rodhocetus), animals with generation lines of about ten years (typical of whales) could substitute no more than about 1,700 mutations.6 This is not nearly enough to generate the new information that whales need for aquatic life, even assuming that all the hypothetical information-adding mutations required for this could somehow arise. (And as shown in chapter 9, real science shows that this cannot occur.)

The recent recognition that the genetic code possesses a unique capacity to resist errors caused by mutation imparts the biochemical intelligent design argument with an entirely new level of credibility. Like a giant SOS shaped with letters ablaze, the optimal nature of the genetic code signals that an Intelligent Agent used those rules to start and sustain life.

The cure for HIV?” “In 2007, a man named Timothy Ray Brown, known later as the Berlin patient, was cured of HIV. Brown was diagnosed with acute myeloid leukemia. His HIV-positive status complicated his treatment. During chemotherapy, he battled sepsis, and his physicians had to explore less traditional approaches. His hematologist, Dr. Gero Hutter, decided on a stem cell therapy: a full bone marrow transplant. Hutter actually passed over the matched bone marrow donor for a donor with a specific genetic mutation: CCR5-Delta 32. CCR5-Delta 32 makes cells immune to HIV.” “Incredible.” “Yes. At first, we thought the Delta 32 mutation must have arisen during the Black Death in Europe—about four to sixteen percent of Europeans have at least one copy. But we’ve traced it back further. We thought perhaps smallpox, but we’ve found Bronze Age DNA samples that carry it. The mutation’s origins are a mystery, but one thing is certain: the bone marrow transplant with CCR5-Delta 32 cured both Brown’s leukemia and HIV. After the transplant, he stopped taking his antiretrovirals and has never again tested positive for HIV.

The secret to battling cancer, then, is to find means to prevent these mutations from occurring in susceptible cells, or to find means to eliminate the mutated cells without compromising normal growth. The conciseness of that statement belies the enormity of the task. Malignant growth and normal growth are so genetically intertwined that unbraiding the two might be one of the most significant scientific challenges faced by our species. Cancer is built into our genomes: the genes that unmoor normal cell division are not foreign to our bodies, but rather mutated, distorted versions of the very genes that perform vital cellular functions. And cancer is imprinted in our society: as we extend our life span as a species, we inevitably unleash malignant growth (mutations in cancer genes accumulate with aging; cancer is thus intrinsically related to age). If we seek immortality, then so, too, in a rather perverse sense, does the cancer cell.

Josie suffers from a very rare disease," he said. "It's caused by a genetic mutation. But the good news is that researchers are working on a gene therapy that could correct the mutation. It's still in the experimental stage, but there's a good chance it'll work. If it does, Josie could be cured." And I wondered, as I often did these days, whether Artificial Friends could help with such work.

The human has genetic adaptation to natural electromagnetic radiation. Increasing, reducing or removing the natural radiation exposures results in a sickened human that may progress onto a diseased state.

As commonly practised, philosophy is the attempt to find good reasons for conventional beliefs' 'There is no mechanism of selection in the history of ideas akin to that of the natural selection of genetic mutations in evolution' 'Human knowledge is one thing, human well-being is another.There is no predetermined harmony between the two' 'In the struggle for life, the taste for truth is a luxury-or else a disability

No matter who you are, who your parents are, you have innate genome flaws, and we do not yet know enough about the vast majority of these potential flaws, and their true risks, to make really intelligent choices.

Once a virus gets into an intensive poultry shed it can move quickly through the flock, constantly replicating itself. Any ‘errors’ or changes to the genetic code during replication don’t get repaired: this is how the virus mutates and new variant strains emerge. The tragedy is that while intensive farms provide ideal conditions for the emergence of new aggressive disease strains, wild birds can then become infected too. Experience

Everyone and everything we know and love. Thanks to a virus. We all carry mutations. Genetic mutations can give you laser vision. Or cancer. Or color blindness. Sometimes a mutation is on a DNA strand that doesn't do anything at all. And sometimes-- almost never-- a genetic mutation will cause an entire species to make an evolutionary leap forward. Think about it... a virus with powers. Sounds like something a biologist would want to protect.

When she was younger, Ellie used to believe that her invisibility was a metaphor for something else, assuming it was her awkwardness, her fear of saying or doing the wrong thing. She had thought as she grew older, more confident, wiser, she would outgrow this not being noticed. But lately, Ellie really felt like a ghost. She would be in a place, but not really there. People looked through her, past her. Her invisibility had taken on a life of its own. It wasn't a metaphor anymore, or a defense mechanism or eccentric little tic. She was actually invisible. At least, that was how it felt to her. Ellie wondered whether her parents were to blame. They were, after all, children of the sixties who had met at a love-in or lie-down or something of that sort, about which Ellie knew little except that a lot of drugs had been involved. Could Ellie's lack of physical presence be a genetic mutation caused by acid or mushrooms? Ellie grew up on their hippie commune among the highest, densest redwoods, where they dug their hands deep into the soil and grew their own food, made their own clothes. So perhaps it is there that the mystery is solved. Ellie indeed was a child of the earth, a baby of beiges and taupes and browns and muted greens. Nature doesn't scream and shout, demanding constant attention, and neither did Ellie. Maybe her invisibility was just her blending right in.

These waves, predicted by Einstein, are ripples moving at the speed of light across the fabric of space-time, and are generated by severe gravitational disturbances, such as the collision of two black holes. And that’s exactly what was observed. The gravitational waves of the first detection were generated by a collision of black holes in a galaxy 1.3 billion light-years away, and at a time when Earth was teeming with simple, single-celled organisms. While the ripple moved through space in all directions, Earth would, after another 800 million years, evolve complex life, including flowers and dinosaurs and flying creatures, as well as a branch of vertebrates called mammals. Among the mammals, a sub-branch would evolve frontal lobes and complex thought to accompany them. We call them primates. A single branch of these primates would develop a genetic mutation that allowed speech, and that branch—Homo sapiens—would invent agriculture and civilization and philosophy and art and science. All in the last ten thousand years. Ultimately, one of its twentieth-century scientists would invent relativity out of his head, and predict the existence of gravitational waves. A century later, technology capable of seeing these waves would finally catch up with the prediction, just days before that gravity wave, which had been traveling for 1.3 billion years, washed over Earth and was detected. Yes, Einstein was a badass.

Mutations litter the chromosomes. In individual specimens of breast and colon cancer, between fifty to eighty genes are mutated; in pancreatic cancers, about fifty to sixty. Even brain cancers, which often develop at earlier ages and hence may be expected to accumulate fewer mutations, possess about forty to fifty mutated genes. Only a few cancers are notable exceptions to this rule, possessing relatively few mutations across the genome. One of these is an old culprit, acute lymphoblastic leukemia: only five or ten genetic alterations cross its otherwise pristine genomic landscape.* Indeed, the relative paucity of genetic aberrancy in this leukemia may be one reason that this tumor is so easily felled by cytotoxic chemotherapy. Scientists speculate that genetically simple tumors (i.e., those carrying few mutations) might inherently be more susceptible to drugs, and thus intrinsically more curable. If so, the strange discrepancy between the success of high-dose chemotherapy in curing leukemia and its failure to cure most other cancers has a deep biological explanation. The search for a “universal cure” for cancer was predicated on a tumor that, genetically speaking, is far from universal. In

When changes in one genetic trait are the source of selection for changes in a second, the rate of response in the latter depends in parts on the rate of change in the former, which, as a rule, is not fast. In comparison, if a cultural practice modifies selection acting on human genetic variation, then the greater the proportion of individuals in the population that exhibit the cultural trait, the stronger the selection on the gene. As a consequence, the rapid spread of a cultural practice often leads quickly to the maximally strong selection of the advantageous genetic variant, which rapidly increases in frequency. Cultural practices typically spread more quickly than genetic mutations, simply because cultural learning typically operates at faster rates than biological evolution. What does the speed with which a culturla trait spreads depend upon? Answer: the fidelity of cultural transmission. The very factor that is critical to the emergence of complex cumulative culture in humans is also a major determinant of evolutionary responses to that culture.

...to remind myself that a person can die while they're still alive, simply by not choosing to live." It's taken me a long time to understand what she'd meant by that. Worry can be pernicious. Left unchecked, it slowly bleeds the soul of joy and replaces it with fear.

Two million years ago, genetic mutations resulted in the appearance of a new human species called Homo erectus. Its emergence was accompanied by the development of a new stone tool technology, now recognised as a defining feature of this species. As long as Homo erectus did not undergo further genetic alterations, its stone tools remained roughly the same – for close to 2 million years! In contrast, ever since the Cognitive Revolution, Sapiens have been able to change their behaviour quickly, transmitting new behaviours to future generations without any need of genetic or environmental change.

Should we consider allowing parents to fully sequence their children’s genomes and potentially terminate pregnancies with such known devastating genetic mutations? We would certainly eliminate Erika’s mutation from the human gene pool—but we would eliminate Erika as well. I will not minimize the enormity of Erika’s suffering, or that of her family—but there is, indubitably, a deep loss in that. To fail to acknowledge the depth of Erika’s anguish is to reveal a flaw in our empathy. But to refuse to acknowledge the price to be paid in this trade-off is to reveal, conversely, a flaw in our humanity.

And that’s exactly what was observed. The gravitational waves of the first detection were generated by a collision of black holes in a galaxy 1.3 billion light-years away, and at a time when Earth was teeming with simple, single-celled organisms. While the ripple moved through space in all directions, Earth would, after another 800 million years, evolve complex life, including flowers and dinosaurs and flying creatures, as well as a branch of vertebrates called mammals. Among the mammals, a sub-branch would evolve frontal lobes and complex thought to accompany them. We call them primates. A single branch of these primates would develop a genetic mutation that allowed speech, and that branch—Homo sapiens—would invent agriculture and civilization and philosophy and art and science. All in the last ten thousand years. Ultimately, one of its twentieth-century scientists would invent relativity out of his head, and predict the existence of gravitational waves. A century later, technology capable of seeing these waves would finally catch up with the prediction, just days before that gravity wave, which had been traveling for 1.3 billion years, washed over Earth and was detected. Yes, Einstein was a badass.

We do know that humans got hit hard by the Toba Super Volcano. We were on the brink of extinction. That caused what population geneticists call a ‘population bottleneck.’ Some researchers believe that this bottleneck caused a small group of humans to evolve, to survive through mutation. These mutations could have led to humanity’s exponential explosion in intelligence. There’s genetic evidence for it. We know that every human being on the planet is directly descended from one man who lived in Africa around sixty thousand years ago—a person we geneticists call Y-Chromosomal Adam. In fact, everyone outside of Africa is descended from a small band of humans, maybe as few as one hundred, that left Africa about 50,000 years ago. Essentially, we’re all members of a small tribe that walked out of Africa after Toba and took over the planet. That tribe was significantly more intelligent than any other hominids in history.

A cockroach appeared just as I was about to get into the bath. It was just the right time for a cockroach to make an appearance in my life; couldn't have been better. It scuttled quickly across the porcelain, the little bugger; I looked around for a slipper, but actually I knew my chances of squashing him were small. What was the point in trying? And what good was Oon, in spite of her marvellously elastic vagina? We were already doomed. Cockroaches copulate gracelessly, with no apparent pleasure; but they also do it repeatedly and their genetic mutations are rapid and efficient. There is absolutely nothing we can do about cockroaches.

For evolution to be true, there would have been innumerable transitional forms between different types of creatures. Therefore, for every known fossil species, many more must have existed to connect it to its ancestors and descendents [sic]. This is yet another example of evolutionary conclusions coming before the evidence. Really, the claim is an implicit admission that large numbers of transitional forms are predicted, which heightens the difficulty for evolutionists, given how few there are that even they could begin to claim were candidates. . . . Evolutionists believe that mutation provides new information for selection. But no known mutation has ever increased genetic information, although there should be many examples observable today if mutation/selection were truly adequate to explain the goo-to-you theory. . . . Adaptation and natural selection are biological facts; amoeba-to-man evolution is not. Natural selection can only work on the genetic information present in a population of organisms--it cannot create new information. For example, since no known reptiles have genes for feathers, no amount of selection will produce a feathered reptile. Mutations in genes can only modify or eliminate existing structures, not create new ones. If in a certain environment a lizard survives better with smaller legs, or no legs, then varieties with this trait will be selected for. This might more accurately be called devolution, not evolution. . . . Note that even if such a mutation were ever discovered, evolutionists would still need to find hundreds more to give their theory the observational boost it desperately needs.

EVOLUTION RESTS ON three steps: (a) certain biological traits are inherited by genetic means; (b) mutations and gene recombination produce variation in those traits; (c) some of those variants confer more “fitness” than others. Given those conditions, over time the frequency of more “fit” gene variants increases in a population.

The combined effects of mutation, natural selection and the random process of genetic drift cause changes in the composition of a population. Over a sufficiently long period of time, these cumulative effects alter the population’s genetic make-up, and can thus greatly change the species’ characteristics from those of its ancestors. We

When the genetic code was solved, in the early 1960s, it turned out to be full of redundancy. Much of the mapping from nucleotides to amino acids seemed arbitrary—not as neatly patterned as any of Gamow’s proposals. Some amino acids correspond to just one codon, others to two, four, or six. Particles called ribosomes ratchet along the RNA strand and translate it, three bases at a time. Some codons are redundant; some actually serve as start signals and stop signals. The redundancy serves exactly the purpose that an information theorist would expect. It provides tolerance for errors. Noise affects biological messages like any other. Errors in DNA—misprints—are mutations.

First, given what is known about the chemical basis of biology and genetics, what is the likelihood that self-reproducing life forms should have come into existence spontaneously on the early earth, solely through the operation of the laws of physics and chemistry? The second question is about the sources of variation in the evolutionary process that was set in motion once life began: In the available geological time since the first life forms appeared on earth, what is the likelihood that, as a result of physical accident, a sequence of viable genetic mutations should have occurred that was sufficient to permit natural selection to produce the organisms that actually exist?

a result, the most efficient way for evolutionary forces to spread beneficial mutations has often been to invent mutations anew rather than to import them from other populations.44 The limited migration rates between some regions of Africa over the last few thousand years has resulted in what Ralph and Coop have described as a “tessellated” pattern of population structure in Africa. Tessellation is a mathematical term for a landscape of tiles—regions of genetic homogeneity demarcated by sharp boundaries—that is expected to form when the process of homogenization due to gene exchanges among neighbors competes with the process of generating new advantageous variations in each region.

Genetic programming essentially allows computer algorithms to design themselves through a process of Darwinian natural selection. Computer code is initially generated randomly and then repeatedly shuffled using techniques that emulate sexual reproduction. Every so often, a random mutation is thrown in to help drive the process in entirely new directions.

One of the greatest problems for systems programmers (the people who write compilers, interpreters, assemblers, and other programs to be used by many people) is to figure out how to write error-detecting routines in such a way that the messages which they feed to the user whose program has a "bug" provide high-level, rather than low-level, descriptions of the problem. it is an interesting reversal that when something goes wrong in a genetic "program" (e.g., a mutation), the "bug" is manifest only to people on a high level - namely on the phenotype level, not the genotype level. Actually, modern biology uses mutations as one of its principal windows onto genetic processes, because of their multilevel traceability.

But what *is* "natural"? I wonder. On one hand: variation, mutation, change, inconstancy, divisibility, flux. And on the other: constancy, permanence, indivisibility, fidelity. Bhed. Abhed. It should hardly surprise us that DNA, the molecule of contradictions, encodes an organism of contradictions. We seek constancy in heredity—and find its opposite: variation. Mutants are necessary to maintain the essence of our selves. Our genome has negotiated a fragile balance between counterpoised forces, pairing strand with opposing strand, mixing past and future, pitting memory against desire. It is the most human of all things that we possess. Its stewardship may be the ultimate test of knowledge and discernment for our species. 

Vaccinations are the application of evolutionary principles in action. If we can control the contact made between pathogen and lymphocyte populations, we can go a long way toward eliminating disease.108 It doesn’t require total annihilation but rather a control on population dynamics. Vaccines are the way we use selective cloning to keep a pathogenic population in a state of benign coexistence. The process is based on evolution, as pointed out by Nobel laureate Susumu Tonegawa: “Genes can mutate and recombine. These dynamic characteristics of genetic material are essential elements of evolution. Do they also play an important role during the development of a single multicellular organism? Our results strongly suggest that this is the case for the immune system.

When fat is heated to frying temperatures, whether it be animal fat, such as lard, or plant fat, such as vegetable oil, toxic volatile chemicals with mutagenic properties (those able to cause genetic mutations) are released into the air.22 This happens even before the “smoke point” temperature is reached.23 If you do fry at home, good ventilation in the kitchen may reduce lung cancer risk.24 Cancer risk may also depend on what’s being fried. A study of women in China found that smokers who stir-fried meat every day had nearly three times the odds of lung cancer compared to smokers who stir-fried foods other than meat on a daily basis.25 This is thought to be because of a group of carcinogens called heterocyclic amines that are formed when muscle tissue is subjected to high temperatures.

7. The monstrous rats of Tehran In Tehran, Iran, a squad of snipers is employed to protect citizens from – rats! Do not think for a single moment that such rats could be easily dealt with by a domestic cat, because the poor cat may this time end up having its rear side kicked big time. The official statement is that the rats were exposed to radiation, which resulted in a severe genetic mutation. They now grow up to over 5 kilograms (10 pounds), and are just as cunning, aggressive and always hungry as the small sewer rats we have all seen. Although there is a disagreement to their origins within the scientific community, there is really no evidence that would point to an explanation where the ravenous, overgrown rodents came from. Good thing they are not skilled in the far-eastern martial arts… we hope.

A modern example of this stunning knowledge of nature that Einstein has gifted us, comes from 2016, when gravitational waves were discovered by a specially designed observatory tuned for just this purpose.† These waves, predicted by Einstein, are ripples moving at the speed of light across the fabric of space-time, and are generated by severe gravitational disturbances, such as the collision of two black holes. And that’s exactly what was observed. The gravitational waves of the first detection were generated by a collision of black holes in a galaxy 1.3 billion light-years away, and at a time when Earth was teeming with simple, single-celled organisms. While the ripple moved through space in all directions, Earth would, after another 800 million years, evolve complex life, including flowers and dinosaurs and flying creatures, as well as a branch of vertebrates called mammals. Among the mammals, a sub-branch would evolve frontal lobes and complex thought to accompany them. We call them primates. A single branch of these primates would develop a genetic mutation that allowed speech, and that branch—Homo sapiens—would invent agriculture and civilization and philosophy and art and science. All in the last ten thousand years. Ultimately, one of its twentieth-century scientists would invent relativity out of his head, and predict the existence of gravitational waves. A century later, technology capable of seeing these waves would finally catch up with the prediction, just days before that gravity wave, which had been traveling for 1.3 billion years, washed over Earth and was detected. Yes, Einstein was a badass.

Stafford's Hypothesis on The Transference of Existence: Even if you self-isolated, stood still, and held your breath after traveling into the past, you would still be a pebble diverting the flow of time in some way. The very transference of existence via wormholes, not interaction with past actors or events, creates paradoxes. Time Transference has three stages: 1. The distance traversed between the origin or starting point of the wormhole and the rip in the Chronosphere (space-time continuum). 2. The transference of biological material through the rip in the Chronosphere without damage to or mutation of the genetic code of the chrono-commuter. 3. Arrival at the endpoint of the time transference - the reconstruction of the chrono-commuter's genetic material and the sealing of the rip in the Chronosphere.

Let the chromosomes be represented by the keyboard of a grand piano-a very grand piano with thousands of keys. Then each key will be a gene. Every cell in the body carries a microscopic but complete keyboard in its nucleus. But each specialised cell is only permitted to sound one chord, according to its specialty-the rest of its genetic keyboard has been inactivated by scotch tape. The fertilised egg, and the first few generations of its daughter cells, had the complete keyboard at their disposal. But succesive generations have, at each 'point of no return', larger and larger areas of it covered by scotch tape. In the end, a muscle cell can only do one thing: contract-strike a single chord. The scotch tape is known in the language of genetics as the 'repressor'. The agent which strikes the key and activates the gene is an 'inducer'. A mutated gene is a key which has gone out of tune. When quite a lot of key have gone quite a lot out of tune, the result, we were asked to believe, was a much improved, wonderful new melody- a reptile transformed into a bird, or a monkey into a man. It seems that at some point the theory must have gone wrong. The point where it went wrong was the atomistic concept of the gene.

Without sex, the only way for bacteria to adapt is through mutation, which is caused by reproductive error or environmental damage. Most mutations are hurtful; they make for even less successful bacteria—though eventually, with luck, a mutation would arise that made for a more heat-resistant bacterium. Asexual adaptation is problematic because the dictate of the world, “Change or die,” runs directly counter to one of the primary dictates of life: “Maintain the integrity of the genome.” In engineering, this type of clash is called a coupled design. Two functions of a system clash so that it is not possible to adjust one without negatively affecting the other. In sexual reproduction, by contrast, the inherent scrambling, or recombination, affords a vast scope for change, yet still maintains genetic integrity.

In the above examples, a sample of the tumor (e.g., biopsy) is tested to determine the molecular signature. Testing may be by genetic sequence tests (e.g., for BCR-ABL, mutated EGFR, or HER2 gene amplification) or tissue protein stains (e.g., for the presence of ER/PR receptors or HER2 protein overexpression). The results of the testing will guide the choice of treatment—it will be personalized for the individual.

Modern humanism is the faith that through science humankind can know the truth- and to be free. But if Darwin's theory of natural selection is true this is impossible. The human mind serves evolutionary success, not truth. To think otherwise is to resurrect the pre-Darwinian error that humans are different from all other animals. (...) There is no mechanism of selection in the history of ideas akin to that of the natural selection of genetic mutations in evolution.(...) Among humans, the best deceivers are those who deceive themselves: 'we deceive ourselves in order to deceive others better'. A lover who promises eternal fidelity s more likely to be believed if he believes his promise himself; he is no more likely to keep his promise.(...) In a competition for mates, a well-developed capacity for self-deception is an advantage.

Genetic atomism is dead. Hereditary stability and hereditary change are both based, not on a mosaic of genes, but on the action of the gene-complex 'as a whole'. But this face-saving expression-which is now coming into increased use-is empty, like so many other holistic formulations, unless we interpolate between the gene-complex as a whole, and the individual gene, a hierarchy of genetic sub-assemblies-self-regulating holons of heredity, which control the development of organs, and also control their possible evolutionary modifications, by canalising the effects of random mutations. A hierarchy with its built-in, self-regulatory safeguards is a stable affair. It cannot be pulled in here, pulled out there, like Patou belabouring his model. It is capable of variation and change, but only in co-ordinated ways and only in limited directions.

That is why urban evolution can proceed so rapidly: the animals and plants that need to adapt to whatever new feature humans release in their urban environment do not need to wait for the right mutations to come along. Mostly, the necessary gene variants are already there, waiting in the wings of the standing genetic variation. It only takes natural selection to bring them out into the limelight, and give them a chance to shine.

The contamination of drinking water in dense urban settlements did not merely affect the number of V. cholerae circulating through the small intestines of mankind. It also greatly increased the lethality of the bacteria. This is an evolutionary principle that has long been observed in populations of disease-spreading microbes. Bacteria and viruses evolve at much faster rates than humans do, for several reasons. For one, bacterial life cycles are incredibly fast: a single bacterium can produce a million offspring in a matter of hours. Each new generation opens up new possibilities for genetic innovation, either by new combinations of existing genes or by random mutations. Human genetic change is several orders of magnitude slower; we have to go through a whole fifteen-year process of maturation before we can even think about passing our genes to a new generation.

The secret to battling cancer, then, is to find means to prevent these mutations from occurring in susceptible cells, or to find means to eliminate the mutated cells without compromising normal growth. The conciseness of that statement belies the enormity of the task. Malignant growth and normal growth are so genetically intertwined that unbraiding the two might be one of the most significant scientific challenges faced by our species.

The lineage of agriculture is a lineage of humans rearranging plant DNA. For a very long time, crossbreeding was the preferred method, but then came Mendel and his peas. As we began to understand how genetics worked, scientists tried all kinds of wild techniques to induce mutations. We dipped seeds in carcinogens and bombarded them with radiation, occasionally inside of nuclear reactors. There are over 2,250 of these mutants around; most of them are certified

The world has been changing even faster as people, devices and information are increasingly connected to each other. Computational power is growing and quantum computing is quickly being realised. This will revolutionise artificial intelligence with exponentially faster speeds. It will advance encryption. Quantum computers will change everything, even human biology. There is already one technique to edit DNA precisely, called CRISPR. The basis of this genome-editing technology is a bacterial defence system. It can accurately target and edit stretches of genetic code. The best intention of genetic manipulation is that modifying genes would allow scientists to treat genetic causes of disease by correcting gene mutations. There are, however, less noble possibilities for manipulating DNA. How far we can go with genetic engineering will become an increasingly urgent question. We can’t see the possibilities of curing motor neurone diseases—like my ALS—without also glimpsing its dangers. Intelligence is characterised as the ability to adapt to change. Human intelligence is the result of generations of natural selection of those with the ability to adapt to changed circumstances. We must not fear change. We need to make it work to our advantage. We all have a role to play in making sure that we, and the next generation, have not just the opportunity but the determination to engage fully with the study of science at an early level, so that we can go on to fulfil our potential and create a better world for the whole human race. We need to take learning beyond a theoretical discussion of how AI should be and to make sure we plan for how it can be. We all have the potential to push the boundaries of what is accepted, or expected, and to think big. We stand on the threshold of a brave new world. It is an exciting, if precarious, place to be, and we are the pioneers. When we invented fire, we messed up repeatedly, then invented the fire extinguisher. With more powerful technologies such as nuclear weapons, synthetic biology and strong artificial intelligence, we should instead plan ahead and aim to get things right the first time, because it may be the only chance we will get. Our future is a race between the growing power of our technology and the wisdom with which we use it. Let’s make sure that wisdom wins.

Every time you experience such an inflow of siddhic high frequency light, you move through an intense period of mutation in which any glitches in your genetic code are erased. This translates into experience as deep unconscious fears rising up to the surface of your awareness through the medium of your body. After such periods, your whole system must literally be rebooted. These times in your life can be very challenging and you may well experience some disorientation

Looking beneath the history of one's country is like learning that alcoholism or depression runs in one's family or that suicide has occurred more often than might be usual or, with the advances of medical genetics, discovering that one has inherited the markers of BRCA mutation for breast cancer. You don't ball up in the corner with guilt or shame at these discoveries. You don't if your wise, forbit any mention of them. In fact you do the opposite. You educate yourself.

Another way is via genetic engineering. Here the germ is inserted into plasmid that has been manipulated by scientists. This type of plasmid is circular segments of DNA extracted from bacteria to serve as a vector. Scientists can add multiple genes and whatever genes they want into this plasmid. In case of vaccines, this includes a genetic piece of the vaccine germ and normally a gene for antibiotic resistance. This means that when the toxic gene is cultured inside the yeast, it has been designed with a new genetic code that makes it resistant to the antibiotic it’s coded for. The gene-plasmid combo is inserted into a yeast cell to be replicated. When the yeast replicates, the DNA from the plasmid is reproduced as a part of the yeast DNA. Once enough cells have been replicated, the genetic material in the new and improved yeast cell is extracted and put into the vaccine. Examples of this vaccine are the acellular pertussis and hepatitis B vaccines. One thing that doesn’t seem to concern scientists is the fact that the manmade genetic combination becomes the vaccine component. This mixture of intended and unintended genetic information may cause our immune system to overreact. This can be especially complicated for a child with compromised immune system. Another concern is that this new genetic code can become integrated with our own genetic material. Yeast, for instance, is very much like human DNA. It shares about one third of our proteins.

Normal cells could acquire these cancer-causing mutations through four mechanisms. The mutations could be caused by environmental insults, such as tobacco smoke, ultraviolet light, or X-rays—agents that attack DNA and change its chemical structure. Mutations could arise from spontaneous errors during cell division (every time DNA is replicated in a cell, there’s a minor chance that the copying process generates an error—an A switched to a T, G, or C, say). Mutant cancer genes could be inherited from parents, thereby causing hereditary cancer syndromes such as retinoblastoma and breast cancer that coursed through families. Or the genes could be carried into the cells via viruses, the professional gene carriers and gene swappers of the microbial world. In all four cases, the result converged on the same pathological process: the inappropriate activation or inactivation of genetic pathways that controlled growth, causing the malignant, dysregulated cellular division that was characteristic of cancer.

The bradys must hold that, on the average, cumulative selection has to add a little information to the genome at each step. But of all the mutations studied since genetics became a science, not a single one has been found that adds a little information. It is not impossible, in principle, for a mutation to add a little information, but it is improbable. The NDT was an attractive theory. Unfortunately, it is based on the false speculation that many small random mutations could build up to large evolutionary changes.

In 1993, a New York hospital launched an aggressive program to screen Ashkenazi Jews for three genetic diseases, including cystic fibrosis, Gaucher’s disease, and Tay-Sachs disease (mutations in these genes are more prevalent in the Ashkenazi population). Parents could freely choose to be screened, to undergo amniocentesis for prenatal diagnosis, and to terminate a pregnancy if the fetus was found to be affected. Since the launch of the program, not a single baby with any of these genetic diseases has been born at that hospital.

In contrast, ever since the Cognitive Revolution, Sapiens have been able to change their behaviour quickly, transmitting new behaviours to future generations without any need of genetic or environmental change. As a prime example, consider the repeated appearance of childless elites, such as the Catholic priesthood, Buddhist monastic orders and Chinese eunuch bureaucracies. The existence of such elites goes against the most fundamental principles of natural selection, since these dominant members of society willingly give up procreation. Whereas chimpanzee alpha males use their power to have sex with as many females as possible – and consequently sire a large proportion of their troop’s young – the Catholic alpha male abstains completely from sexual intercourse or raising a family. This abstinence does not result from unique environmental conditions such as a severe lack of food or want of potential mates. Nor is it the result of some quirky genetic mutation. The Catholic Church has survived for centuries, not by passing on a ‘celibacy gene’ from one pope to the next, but by passing on the stories of the New Testament and of Catholic canon law.

It is the impulse of science to try to understand nature, and the impulse of technology to try to manipulate it. Recombinant DNA had pushed genetics from the realm of science into the realm of technology. Genes were not abstractions anymore. They could be liberated from the genomes of organisms where they had been trapped for millennia, shuttled between species, amplified, purified, extended, shortened, altered, remixed, mutated, mixed, matched, cut, pasted, edited; they were infinitely malleable to human intervention. Genes were no longer just the subjects of study, but the instruments of study.

The story of the Eridania Basin and the possible scientific promise it holds was pieced together by using the results from different instruments on different spacecraft over many years, spanning several scientific disciplines: geology, chemistry, spectroscopy, laser altitude ranging and photography. The estimate of the age of the surface required the Apollo lunar rock samples from 50 years ago, and radiometric dating techniques which require an understanding of nuclear physics. The estimate of the age of the surface requires a model of the entire Solar System in order to interpret the measured crater density, which illustrates another important idea. The Solar System is a system; no planet is an island; no planet can be understood in isolation, just as the structure of any one living thing on Earth cannot be understood in isolation. Organisms are a product of evolution by natural selection, the interaction of the expression of genetic mutations and mixing with other organisms, in the ecosystem and the wider environment. The planets formed in a chaotic maelstrom from motions as random as the impact of a cosmic ray on a strand of primordial DNA, and whatever worlds emerged from the chaos have had their histories shaped profoundly by their mutual interactions throughout their evolution; the Late Heavy Bombardment is a beautiful example.

Natural or sexual selection acts on these nonsilent mutations, slightly increasing or decreasing the offspring with that trait in each successive generation against a background of random genetic change. This random genetic change and the accumulation of heritable changes, while the other drives increases or decreases in traits based on the advantage or disadvantage they confer on the organism. Taken together, randomness and direction produce what biologist Stephen Jay Gould called the "drunkard's walk." A person stumbling from a bar and deeply inebriated might have some sense of which direction home lies, but their path would be anything but direct. They might, if the randomness predominated, even be headed in the wrong direction.

The Case of the Eyeless Fly The fruit fly has a mutant gene which is recessive, i.e., when paired with a normal gene, has no discernible effect (it will be remembered that genes operate in pairs, each gene in the pair being derived from one parent). But if two of these mutant genes are paired in the fertilised egg, the offspring will be an eyeless fly. If now a pure stock of eyeless flies is made to inbreed, then the whole stock will have only the 'eyeless' mutant gene, because no normal gene can enter the stock to bring light into their darkness. Nevertheless, within a few generations, flies appear in the inbred 'eyeless' stock with eyes that are perfectly normal. The traditional explanation of this remarkable phenomenon is that the other members of the gene-complex have been 'reshuffled and re-combined in such a way that they deputise for the missing normal eye-forming gene.' Now re-shuffling, as every poker player knows, is a randomising process. No biologist would be so perverse as to suggest that the new insect-eye evolved by pure chance, thus repeating within a few generations an evolutionary process which took hundreds of millions of years. Nor does the concept of natural selection provide the slightest help in this case. The re-combination of genes to deputise for the missing gene must have been co-ordinated according to some overall plan which includes the rules of genetic self-repair after certain types of damage by deleterious mutations. But such co-ordinative controls can only operate on levels higher than that of individual genes. Once more we are driven to the conclusion that the genetic code is not an architect's blueprint; that the gene-complex and its internal environment form a remarkably stable, closely knit, self-regulating micro-hierarchy; and that mutated genes in any of its holons are liable to cause corresponding reactions in others, co-ordinated by higher levels. This micro-hierarchy controls the pre-natal skills of the embryo, which enable it to reach its goal, regardless of the hazards it may encounter during development. But phylogeny is a sequence of ontogenies, and thus we are confronted with the profound question: is the mechanism of phylogeny also endowed with some kind of evolutionary instruction booklet? Is there a strategy of the evolutionary process comparable to the 'strategy of the genes'-to the 'directiveness' of ontogeny (as E.S. Russell has called it)?

Looking beneath the history of one’s country is like learning that alcoholism or depression runs in one’s family or that suicide has occurred more often than might be usual or, with the advances in medical genetics, discovering that one has inherited the markers of a BRCA mutation for breast cancer. You don’t ball up in a corner with guilt or shame at these discoveries. You don’t, if you are wise, forbid any mention of them. In fact, you do the opposite. You educate yourself. You talk to people who have been through it and to specialists who have researched it. You learn the consequences and obstacles, the options and treatment. You may pray over it and meditate over it. Then you take precautions to protect yourself and succeeding generations and work to ensure that these things, whatever they are, don’t happen again.

The humanities, in contrast, emphasise the crucial importance of intersubjective entities, which cannot be reduced to hormones and neurons. To think historically means to ascribe real power to the contents of our imaginary stories. Of course, historians don’t ignore objective factors such as climate changes and genetic mutations, but they give much greater importance to the stories people invent and believe. North Korea and South Korea are so different from one another not because people in Pyongyang have different genes to people in Seoul, or because the north is colder and more mountainous. It’s because the north is dominated by very different fictions. Maybe someday breakthroughs in neurobiology will enable us to explain communism and the crusades in strictly biochemical terms. Yet we are very far from that point. During the twenty-first century the border between history and biology is likely to blur not because we will discover biological explanations for historical events, but rather because ideological fictions will rewrite DNA strands; political and economic interests will redesign the climate; and the geography of mountains and rivers will give way to cyberspace. As human fictions are translated into genetic and electronic codes, the intersubjective reality will swallow up the objective reality and biology will merge with history. In the twenty-first century fiction might thereby become the most potent force on earth, surpassing even wayward asteroids and natural selection. Hence if we want to understand our future, cracking genomes and crunching numbers is hardly enough. We must also decipher the fictions that give meaning to the world.

HISTORICAL NOTE There are no nuclear power stations in Belarus. Of the functioning stations in the territory of the former USSR, the ones closest to Belarus are of the old Soviet-designed RBMK type. To the north, the Ignalinsk station, to the east, the Smolensk station, and to the south, Chernobyl. On April 26, 1986, at 1:23:58, a series of explosions destroyed the reactor in the building that housed Energy Block #4 of the Chernobyl Nuclear Power Station. The catastrophe at Chernobyl became the largest technological disaster of the twentieth century. For tiny Belarus (population: 10 million), it was a national disaster. During the Second World War, the Nazis destroyed 619 Belarussian villages along with their inhabitants. As a result of Chernobyl, the country lost 485 villages and settlements. Of these, 70 have been forever buried underground. During the war, one out of every four Belarussians was killed; today, one out of every five Belarussians lives on contaminated land. This amounts to 2.1 million people, of whom 700,000 are children. Among the demographic factors responsible for the depopulation of Belarus, radiation is number one. In the Gomel and Mogilev regions, which suffered the most from Chernobyl, mortality rates exceed birth rates by 20%. As a result of the accident, 50 million Ci of radionuclides were released into the atmosphere. Seventy percent of these descended on Belarus; fully 23% of its territory is contaminated by cesium-137 radionuclides with a density of over 1 Ci/km2. Ukraine on the other hand has 4.8% of its territory contaminated, and Russia, 0.5%. The area of arable land with a density of more than 1 Ci/km2 is over 18 million hectares; 2.4 thousand hectares have been taken out of the agricultural economy. Belarus is a land of forests. But 26% of all forests and a large part of all marshes near the rivers Pripyat, Dniepr, and Sozh are considered part of the radioactive zone. As a result of the perpetual presence of small doses of radiation, the number of people with cancer, mental retardation, neurological disorders, and genetic mutations increases with each year. —“Chernobyl.” Belaruskaya entsiklopedia On April 29, 1986, instruments recorded high levels of radiation in Poland, Germany, Austria, and Romania. On April 30, in Switzerland and northern Italy. On May 1 and 2, in France, Belgium, the Netherlands, Great Britain, and northern Greece. On May 3, in Israel, Kuwait, and Turkey. . . . Gaseous airborne particles traveled around the globe: on May 2 they were registered in Japan, on May 5 in India, on May 5 and 6 in the U.S. and Canada. It took less than a week for Chernobyl to become a problem for the entire world. —“The Consequences of the Chernobyl Accident in Belarus.” Minsk, Sakharov International College on Radioecology The fourth reactor, now known as the Cover, still holds about twenty tons of nuclear fuel in its lead-and-metal core. No one knows what is happening with it. The sarcophagus was well made, uniquely constructed, and the design engineers from St. Petersburg should probably be proud. But it was constructed in absentia, the plates were put together with the aid of robots and helicopters, and as a result there are fissures. According to some figures, there are now over 200 square meters of spaces and cracks, and radioactive particles continue to escape through them . . . Might the sarcophagus collapse? No one can answer that question, since it’s still impossible to reach many of the connections and constructions in order to see if they’re sturdy. But everyone knows that if the Cover were to collapse, the consequences would be even more dire than they were in 1986. —Ogonyok magazine, No. 17, April 1996

Unlike any other chromosome, the Y is “unpaired”—i.e., it has no sister chromosome and no duplicate copy, leaving every gene on the chromosome to fend for itself. A mutation in any other chromosome can be repaired by copying the intact gene from the other chromosome. But a Y chromosome gene cannot be fixed, repaired, or recopied from another chromosome; it has no backup or guide (there is, however, a unique internal system to repair genes in the Y chromosome). When the Y chromosome is assailed by mutations, it lacks a mechanism to recover information. The Y is thus pockmarked with the potshots and scars of history. It is the most vulnerable spot in the human genome. As a consequence of this constant genetic bombardment, the human Y chromosome began to jettison information millions of years ago. Genes that were truly valuable for survival were likely shuffled to other parts of the genome where they could be stored securely; genes with limited value were made obsolete, retired, or replaced; only the most essential genes were retained (some of these genes were duplicated in the Y chromosome itself—but even this strategy does not solve the problem completely). As information was lost, the Y chromosome itself shrank—whittled down piece by piece by the mirthless cycle of mutation and gene loss. That the Y chromosome is the smallest of all chromosomes is not a coincidence: it is largely a victim of planned obsolescence (in 2014, scientists discovered that a few extremely important genes may be permanently lodged in the Y). In genetic terms, this suggests a peculiar paradox. Sex, one of the most complex of human traits, is unlikely to be encoded by multiple genes. Rather, a single gene, buried rather precariously in the Y chromosome, must be the master regulator of maleness.I Male readers of that last paragraph should take notice: we barely made it.

gene, the mutation of whose DNA building blocks accelerated after the split between humans and chimpanzees, around 5.5 million years ago. The theory has also been put forward that the human brain is still evolving, on the grounds that a genetic variant of ASPM is thought to have originated only 5,800 years ago and then spread rapidly through the population. A genetic variant of the microcephalin gene (D allele of MCPH1), which regulates brain size, is thought to have only entered the DNA of Homo sapiens during the last ice age, around 37,000 years ago—yet 70 percent of the current world population carries this variant. A rapid increase of this kind is only possible if a variant confers a clear evolutionary advantage. Genes whose mutations are associated with human language have also been found. Mutations of the FOXP2 gene cause language and speech disorders that run in families. And ASPM and microcephalin also appear to have a linguistic connection.

In the early days of genetics, a gene could be 'dominant' or 'recessive', and that was about all there was to it; but gradually more and more terms had to be added to the vocabulary: repressors, apo-repressors, co-repressors, inducers, modifier genes, switch genes, operator genes which activate other genes, and even genes which regulate the rate of mutations in genes. Thus the action of the gene-complex was originally conceived as the unfolding of a simple linear sequence like that on a tape-recorder or the Behaviourist's conditioned-reflex chain; whereas it is now gradually becoming apparent that the genetic controls operate as a self-regulating micro-hierarchy, equipped with feedback devices which guide their flexible strategies. This not only protects the growing embryo against the hazards of ontogeny; it would also protect it against the evolutionary hazards of phylogeny, or random mutations in its own hereditary materials-the blind antics of the monkey at the typewriter.

Let's look at one more quick example of modern evolution at work. In the early 1800s, light-colored lichens covered many of the trees in the English countryside. The peppered moth was a light-colored insect that blended in unnoticeably with the lichens. Predators had great difficulty distinguishing the peppered moth from its background environment, so the moths easily survived and reproduced. Then the Industrial Revolution came to the English country- side. Coal-burning factories turned the lichens a sooty black. The light-colored peppered moth became clearly visible. Most of them were eaten. But because of genetic variation and mutation, a few peppered moths displayed a slightly darker color. These darker moths were better able to blend in with the sooty lichens, and so lived to produce other darker-colored moths. In little over a hun- dred years, successive generations of peppered moths evolved from almost completely white to completely black. Natural selec- tion, rather than "random accident," guided the moth's evolution- ary progress.

With the rise of molecular genetics, it has become possible to search for possible changes (mutations, polymorphisms) in target genes. Much effort has gone into investigating variations in genes that contribute to serotonin transmission, because serotonin-related drugs have antidepressant and anxiolytic properties. This assumes, however, that the treatment mechanism is the same mechanism that gives rise to the disorder.53 Although this is consistent with the old chemical imbalance hypothesis, it is not a conclusion that should simply be accepted without careful assessment. Nevertheless, studies of the genetic control of serotonin have found interesting results. For example, people with a certain variant (polymorphism) of a gene controlling a protein involved in serotonin transmission are more reactive to threatening stimuli, and this hyperreactivity is associated with increased amygdala activity during the threat.54 Further, it has been reported that this variant of the gene can account for 7 percent to 9 percent of the inheritance of anxiety.55

And what is your faith, exactly, Mr. Switters? What do you believe in?” “Umm. Well. I try not to.” “You try not to believe?” “That’s right. I’m on the run from the Killer B’s.” “Pardon? What have killer bees to do with? …” “B for Belief. B for Belonging. The B’s that lead to most of the killing in the world. If you don’t Belong among us, then you’re our inferior, or our enemy, or both; and you can’t Belong with us unless you Believe what we Believe. Maybe not even then, but it certainly helps. Our religion, our party, our tribe, our town, our school, our race, our nation. Believe. Belong. Behave. Or Be damned.” “But human beings have—” “A need to belong somewhere, to believe in something? Yeah, Sister—if I may still call you that—they seem to. It’s virtually genetic. I’m on guard against it, and it still overtakes me. The concern is that we may annihilate ourselves before we can evolve, or mutate, beyond it; but you may rest assured that, even if we survive, as long as we’re driven to Belong and Believe, we’ll never be at peace, and we’ll never be free.

By the end of this decade, permutations and combinations of genetic variants will be used to predict variations in human phenotype, illness, and destiny. Some diseases might never be amenable to such a genetic test, but perhaps the severest variants of schizophrenia or heart disease, or the most penetrant forms of familial cancer, say, will be predictable by the combined effect of a handful of mutations. And once an understanding of "process" has been built into predictive algorithms, the interactions between various gene variants could be used to compute ultimate effects on a whole host of physical and mental characteristics beyond disease alone. Computational algorithms could determine the probability of the development of heart disease or asthma or sexual orientation and assign a level of relative risk for various fates to each genome. The genome will thus be read not in absolutes, but in likelihoods-like a report card that does not contain grades but probabilities, or a resume that does not list past experiences but future propensities. It will become a manual for previvorship.

Horvitz and his colleagues discovered several genes that coded for the effectors of cell death in nematodes—the death genes. Their findings were fascinating in their own right, but by far the most unexpected and important discovery was that there were exact equivalents of the death genes in flies, mammals, and even plants. Cancer researchers had already identified some of these genes at the time, but why or how they were involved in cancer was still unknown. The link with nematodes made their function clear, while giving another demonstration of the fundamental unity of life. Not only were the human genes unambiguously related to the nematode genes, but also they could even be genetically engineered to replace the nematode genes in the worms themselves, where they worked equally well! Mutations that disabled any of the death genes prevented the nematodes from losing their 131 cells by apoptosis as usual. The implications for cancer were plain: if the same mutations had a similar effect in people, then incipient cancer cells would likewise fail to commit suicide, and would instead continue to proliferate to form a tumour.

A note of caution: epigenetics is also on the verge of transforming into a dangerous idea. Epigenetic modifications of genes can potentially superpose historical and environmental information on cells and genomes—but this capacity is speculative, limited, idiosyncratic, and unpredictable: a parent with an experience of starvation produces children with obesity and overnourishment, while a father with the experience of tuberculosis, say, does not produce a child with an altered response to tuberculosis. Most epigenetic “memories” are the consequence of ancient evolutionary pathways, and cannot be confused with our longing to affix desirable legacies on our children. As with genetics in the early twentieth century, epigenetics is now being used to justify junk science and enforce stifling definitions of normalcy. Diets, exposures, memories, and therapies that purport to alter heredity are eerily reminiscent of Lysenko’s attempt to “reeducate” wheat using shock therapy. Mothers are being asked to minimize anxiety during their pregnancy—lest they taint all their children, and their children, with traumatized mitochondria. Lamarck is being rehabilitated into the new Mendel. These glib notions about epigenetics should invite skepticism. Environmental information can certainly be etched on the genome. But most of these imprints are recorded as “genetic memories” in the cells and genomes of individual organisms—not carried forward across generations. A man who loses a leg in an accident bears the imprint of that accident in his cells, wounds, and scars—but does not bear children with shortened legs. Nor has the uprooted life of my family seem to have burdened me, or my children, with any wrenching sense of estrangement. Despite Menelaus’s admonitions, the blood of our fathers is lost in us—and so, fortunately, are their foibles and sins. It is an arrangement that we should celebrate more than rue. Genomes and epigenomes exist to record and transmit likeness, legacy, memory, and history across cells and generations. Mutations, the reassortment of genes, and the erasure of memories counterbalance these forces, enabling unlikeness, variation, monstrosity, genius, and reinvention—and the refulgent possibility of new beginnings, generation upon generation.

Viruses, for instance, perform a really irritating function of intermingling the DNA from every species on Earth with every other. As Richard Lewontin puts it . . . It used to be thought that new functions had to arise by mutations of the genes already possessed by a species and that the only way such mutations could spread was by the normal processes of reproduction. It is now clear that genetic material has moved during evolution from species to species by means of retroviruses and other transposable particles. . . . What is so extraordinary in its implications for evolution is that transposition can occur between forms of life that are quite different, between distantly related vertebrates, for example, or even between plants and bacteria. . . . Thus, the assumption that species are on independent evolutionary pathways, once they have diverged from each other and can no longer interbreed, is incorrect. All life-forms are in potential genetic contact and genetic exchanges between them are going on. . . . The evolutionary “tree of life” seems the wrong metaphor. Perhaps we should think of it as an elaborate bit of macramé.16

There are many examples where species share common plastic traits. What appears to be convergence may just be the plastic response of the organism to its environment. Examples include the following: Limbs that protrude from an animal’s body have more surface area per unit mass than the rest of the body. In cold weather the animal loses more heat per unit mass from these limbs than from other parts of the body. In many species the tails and legs are shorter for those living in colder climates and larger for those in warmer climates. Gulls’ wings are shorter in cold climates than in warm. Hares and foxes also have shorter ears in cold climates than in warm. Eskimos have shorter arms and legs than do people living in warmer climates. . . . Jodan’s rule: Many species of fish tend to have more vertebrae when they live in cold water than do the same species living in warm water. These differences have been shown to depend on the temperature at which the fish have been reared. What these rules show is not convergence. They show that different species adopt the same anatomical strategies when they have to cope with the same environmental conditions. We have seen that these strategies cannot come from random mutations. It is much more reasonable to say they come from environmental cues acting on the genetic program.

Working independently, Baltimore and Temin discovered an enzyme found in retroviruses that could build DNA from an RNA template. They called the enzyme reverse transcriptase-"reverse" because it inverted the normal direction of information flow: from RNA back to DNA, or from a gene's message backward to a gene, thereby violating Crick's "central dogma" (that genetic information only moved from genes to messages, but never backward). Using reverse transcriptase, ever RNA in a cell could be used as a template to build its corresponding gene. A biologist could thus generate a catalog, or "library" of all "active" genes in a cell-akin to a library of books grouped by subject. There would be a library of genes for T cells and another for red blood cells, a library for neurons in the retina, for insulin-secreting cells of the pancreas, and so forth. By comparing libraries derived from two cells-a T cell and a pancreas cell, say-an immunologist could fish out genes that were active in one cell and not the other (e.g., insulin or the T cell receptor). Once identified, that gene could be amplified a millionfold in bacteria. The gene could be isolated and sequenced, its RNA and protein sequence determined, its regulatory regions identified; it could be mutated an inserted into a different cell to decipher the gene's structure and function. In 1984 this technique was deployed to clone the T cell receptor-a landmark achievement in immunology.

When we go to the doctor, he or she will not begin to treat us without taking our history—and not just our history but that of our parents and grandparents before us. The doctor will not see us until we have filled out many pages on a clipboard that is handed to us upon arrival. The doctor will not hazard a diagnosis until he or she knows the history going back generations. As we fill out the pages of our medical past and our current complaints, what our bodies have been exposed to and what they have survived, it does us no good to pretend that certain ailments have not beset us, to deny the full truths of what brought us to this moment. Few problems have ever been solved by ignoring them. Looking beneath the history of one’s country is like learning that alcoholism or depression runs in one’s family or that suicide has occurred more often than might be usual or, with the advances in medical genetics, discovering that one has inherited the markers of a BRCA mutation for breast cancer. You don’t ball up in a corner with guilt or shame at these discoveries. You don’t, if you are wise, forbid any mention of them. In fact, you do the opposite. You educate yourself. You talk to people who have been through it and to specialists who have researched it. You learn the consequences and obstacles, the options and treatment. You may pray over it and meditate over it. Then you take precautions to protect yourself and succeeding generations and work to ensure that these things, whatever they are, don’t happen again.

Until recently, three unspoken principles have guided the arena of genetic diagnosis and intervention. First, diagnostic tests have largely been restricted to gene variants that are singularly powerful determinants of illness—i.e., highly penetrant mutations, where the likelihood of developing the disease is close to 100 percent (Down syndrome, cystic fibrosis, Tay-Sachs disease). Second, the diseases caused by these mutations have generally involved extraordinary suffering or fundamental incompatibilities with “normal” life. Third, justifiable interventions—the decision to abort a child with Down syndrome, say, or intervene surgically on a woman with a BRCA1 mutation—have been defined through social and medical consensus, and all interventions have been governed by complete freedom of choice. The three sides of the triangle can be envisioned as moral lines that most cultures have been unwilling to transgress. The abortion of an embryo carrying a gene with, say, only a ten percent chance of developing cancer in the future violates the injunction against intervening on low-penetrance mutations. Similarly, a state-mandated medical procedure on a genetically ill person without the subject’s consent (or parental consent in the case of a fetus) crosses the boundaries of freedom and noncoercion. Yet it can hardly escape our attention that these parameters are inherently susceptible to the logic of self-reinforcement. We determine the definition of “extraordinary suffering.” We demarcate the boundaries of “normalcy” versus “abnormalcy.” We make the medical choices to intervene. We determine the nature of “justifiable interventions.” Humans endowed with certain genomes are responsible for defining the criteria to define, intervene on, or even eliminate other humans endowed with other genomes. “Choice,” in short, seems like an illusion devised by genes to propagate the selection of similar genes.

Modeling the evolution of modularity became significantly easier after a kind of genetic variation was discovered by quantitative trait locus (QTL) mapping in the lab of James Cheverud at Washington University called 'relationship QTL' or r-QTL for short. An r-QTL is a genetic locus that affects the correlations between two quantitative traits (i.e. their variational relationship, and therefore, 'relationship' loci). Surprisingly, a large fraction of these so-mapped loci are also neutral with respect to the character mean. This means one can select on these 'neutral' r-QTLs without simultaneously changing the character mean in a certain way. It was easy to show that differential directional selection on a character could easily lead a decrease in genetic correlation between characters. Of course, it is not guaranteed that each and every population has the right kind of r-QTL polymorphisms, nor is it yet clear what kind of genetic architecture allows for the existence of an r-QTL. Nevertheless, these findings make it plausible that differential directional selection can enhance the genetic/variational individuality of traits and, thus, may play a role in the origin of evolutionary novelties by selecting for variational individuality. It must be added, though, that there has been relatively little research in this area and that we will need to see more to determine whether we understand what is going on here, if anything. In particular, one difficulty is the mathematical modeling of gene interaction (epistasis), because the details of an epistasis model determine the outcome of the evolution by natural selection. One result shows that natural selection increases or decreases mutational variance, depending on whether the average epistatic effects are positive or negative. This means that the genetic architecture is more determined by the genetic architecture that we start with than by the nature of the selection forces that act upon it. In other words, the evolution of a genetic architecture could be arbitrary with respect to selection.

Neo-Darwinism and Mutations In order to find a solution, Darwinists advanced the "Modern Synthetic Theory," or as it is more commonly known, Neo-Darwinism, at the end of the 1930s. Neo- Darwinism added mutations, which are distortions formed in the genes of living beings due to such external factors as radiation or replication errors, as the "cause of favorable variations" in addition to natural mutation. Today, the model that stands for evolution in the world is Neo-Darwinism. The theory maintains that millions of living beings formed as a result of a process whereby numerous complex organs of these organisms (e.g., ears, eyes, lungs, and wings) underwent "mutations," that is, genetic disorders. Yet, there is an outright scientific fact that totally undermines this theory: Mutations do not cause living beings to develop; on the contrary, they are always harmful. The reason for this is very simple: DNA has a very complex structure, and random effects can only harm it. The American geneticist B. G. Ranganathan explains this as follows: First, genuine mutations are very rare in nature. Secondly, most mutations are harmful since they are random, rather than orderly changes in the structure of genes; any random change in a highly ordered system will be for the worse, not for the better. For example, if an earthquake were to shake a highly ordered structure such as a building, there would be a random change in the framework of the building which, in all probability, would not be an improvement. Not surprisingly, no mutation example, which is useful, that is, which is observed to develop the genetic code, has been observed so far. All mutations have proved to be harmful. It was understood that mutation, which is presented as an "evolutionary mechanism," is actually a genetic occurrence that harms living things, and leaves them disabled. (The most common effect of mutation on human beings is cancer.) Of course, a destructive mechanism cannot be an "evolutionary mechanism." Natural selection, on the other hand, "can do nothing by itself," as Darwin also accepted. This fact shows us that there is no "evolutionary mechanism" in nature. Since no evolutionary mechanism exists, no such any imaginary process called "evolution" could have taken place.

The key point is that these patterns, while mostly stable, are not permanent: certain environmental experiences can add or subtract methyls and acetyls, changing those patterns. In effect this etches a memory of what the organism was doing or experiencing into its cells—a crucial first step for any Lamarck-like inheritance. Unfortunately, bad experiences can be etched into cells as easily as good experiences. Intense emotional pain can sometimes flood the mammal brain with neurochemicals that tack methyl groups where they shouldn’t be. Mice that are (however contradictory this sounds) bullied by other mice when they’re pups often have these funny methyl patterns in their brains. As do baby mice (both foster and biological) raised by neglectful mothers, mothers who refuse to lick and cuddle and nurse. These neglected mice fall apart in stressful situations as adults, and their meltdowns can’t be the result of poor genes, since biological and foster children end up equally histrionic. Instead the aberrant methyl patterns were imprinted early on, and as neurons kept dividing and the brain kept growing, these patterns perpetuated themselves. The events of September 11, 2001, might have scarred the brains of unborn humans in similar ways. Some pregnant women in Manhattan developed post-traumatic stress disorder, which can epigenetically activate and deactivate at least a dozen genes, including brain genes. These women, especially the ones affected during the third trimester, ended up having children who felt more anxiety and acute distress than other children when confronted with strange stimuli. Notice that these DNA changes aren’t genetic, because the A-C-G-T string remains the same throughout. But epigenetic changes are de facto mutations; genes might as well not function. And just like mutations, epigenetic changes live on in cells and their descendants. Indeed, each of us accumulates more and more unique epigenetic changes as we age. This explains why the personalities and even physiognomies of identical twins, despite identical DNA, grow more distinct each year. It also means that that detective-story trope of one twin committing a murder and both getting away with it—because DNA tests can’t tell them apart—might not hold up forever. Their epigenomes could condemn them. Of course, all this evidence proves only that body cells can record environmental cues and pass them on to other body cells, a limited form of inheritance. Normally when sperm and egg unite, embryos erase this epigenetic information—allowing you to become you, unencumbered by what your parents did. But other evidence suggests that some epigenetic changes, through mistakes or subterfuge, sometimes get smuggled along to new generations of pups, cubs, chicks, or children—close enough to bona fide Lamarckism to make Cuvier and Darwin grind their molars.

I’ve been spending all my time genetically mutating this centipede, then I've been leaving it’s cage open and pretending to take a photo of this cardboard cut-out of Mary Jane...

Darwinism is the most primitive version of evolution you can get, and doesn’t make any formal sense since it mixes indeterminism (random mutation) and determinism (natural selection). A truly randomist system could never give rise to natural selection in the first place. Nothing would ever be selected according to any teleological criteria. Things would be selected at random, leading to no progress and no evolution at all! If you believe in random genetic mutation, why don’t you also believe in random natural selection? How on earth does a process come into existence out of nothing that looks exactly like teleological breeding?

Genetic mutations may explain the mechanism of how cancers keep growing, but they do not explain the fundamental question of why these genes mutated. The SMT fails because it is entirely inward-looking, toward our genes, instead of outward-looking, toward the environment. But so many different environmental attributes obviously affect cancer risk. The seed is important, but the soil matters more.

Furthermore, we humans in particular have conscience apart from consciousness. We have ability to differentiate right from wrong. We have self-awareness. If we are result of genetic mutations alone without any Creator and we have come to exist as the fittest species, then is there any harm or anything wrong if we mutate or destroy other life-forms. If water is scarce and we do not want to change our lifestyles and industrial production of unnecessary goods, then what is wrong if we kill few thousand camels instead? For that matter, even human populations. Why is that wrong in the evolutionary biology story where we start from inanimate matter and then decompose into a debris of matter again eventually.

If Bliss Brain is so desirable and pleasurable, why is it so fragile? Why can our brains be distracted from happiness by the slightest hint of a thought? Why is the demon’s slightest whisper enough to drag us out of bliss? Why are our brains hardwired for negativity? The answer is simple: That’s how our ancestors survived. Those who were the most responsive to danger lived. If your ancestor’s brain had a genetic mutation that heard the rustle of the tiger in the grass a nanosecond earlier, he started running a moment sooner. Genes that paid close attention to threats conferred an enormous survival advantage, as I illustrate in my book The Genie in Your Genes. People who were less responsive to potential threats died, and their genes were lost to the gene pool. Those who reacted to the smallest hint of danger survived, passing their paranoid genes to the next generation. In contrast, happiness provided little or no survival value. Fail to notice a beautiful sunset, ignore the sound of children singing, walk by a rose bush without smelling the blooms? Nothing bad happens. But miss the rustle of the tiger? That’s fatal. So thousands of generations of evolution have honed our ability to respond to even the most minuscule whisper of the remotest possibility of threat, and abandon happiness at the drop of a hat. Mother Nature cares greatly about your survival—and not at all about your happiness. That’s why the DMN defaults to worry, instead of to bliss. Mentally rehearsing future stuff that might just possibly hurt us, past stuff that definitely hurt us, and present stuff that might signal danger—all these are signs of a brain that is successfully practicing the strategies that ensured our ancestors’ survival. This isn’t bad. It’s just excessive for the safe modern world in which we live. If you’re at a construction site where a skyscraper is being built, you wear a hard hat and safety goggles. Such an outfit is entirely appropriate for that context. As attire for tea with the queen? Not so much. Although the DMN interrupts meditation, it plays a useful role in our lives. It is active when we are thinking about others, considering our safety, remembering the past, and planning for the future. It is also active in self-oriented and social tasks, including memorizing the experiences we collect during task-oriented activities. The path of your inner mystic will elevate you to enlightenment. The goal of your inner demon is to keep you safe. You can’t get enlightened if you’ve been eaten by the tiger.

Genetically Modified Food produce proteins that the DNA does not recognise and so is unable to use these proteins in the reproduction of a new cell. The result is mutated cells.

The next question of interest is whether the long behavioral shift toward more restrained behavior had a genetic basis. The gracilization of human skulls prior to 15,000 years ago almost certainly did, and Clark makes a strong case that the molding of the English population from rough peasants into industrious citizenry between 1200 and 1800 AD was a continuation of this evolutionary process. On the basis of Pinker’s vast compilation of evidence, natural selection seems to have acted incessantly to soften the human temperament, from the earliest times until the most recent date for which there is meaningful data. This is the conclusion that Pinker signals strongly to his readers. He notes that mice can be bred to be more aggressive in just five generations, evidence that the reverse process could occur just as speedily. He describes the human genes, such as the violence-promoting MAO-A mutation mentioned in chapter 3, that could easily be modulated so as to reduce aggressiveness. He mentions that violence is quite heritable, on the evidence from studies of twins, and so must have a genetic basis. He states that “nothing rules out the possibility that human populations have undergone some degree of biological evolution in recent millennia, or even centuries, long after races, ethnic groups, and nations diverged.

far better way of understanding the acquisition of speech, and indeed the acquisition of any emergent characteristic in humans, is the selection and genetic-drift model, and via a changing interaction between culture and our genes, a mutation in FOXP2 set in a framework from which language could develop. We don’t know if the Neanderthals had that same framework; we can reasonably imagine that they did, given their similarities in material culture, morphology, and a version of FOXP2 that is the same in us and different from chimps. I suspect that they were speakers, but it will take a very clever experiment to help clarify that question, one of which I cannot quite conceive, at least not yet.

Duplication and transfer from other genetic sources are examples of nature’s ability to co-opt existing tools: evolution the tinkerer. Evolution also creates from scratch. We call these de novo mutations, and they arise when a seemingly nonsensical run of DNA mutates and changes into a readable sentence.

Scheff continued, “The drugs being given to the children are toxic—they’re known to cause genetic mutation, organ failure, bone marrow death, bodily deformations, brain damage, and fatal skin disorders.15 “If the children refuse the drugs, they’re held down and force fed. If the children continue to resist, they’re taken to Columbia Presbyterian hospital, where a surgeon puts a plastic tube through their abdominal wall into their stomachs. From then on, the drugs are injected directly into their intestines.16

We execute prisoners and send them to death, but we never stopped to ask what led them to commit those hideous crimes. You have a lot to learn. Serial killers show signs of psychological disorders such as psychopathy, antisocial personality disorder, or narcissistic personality disorder. Are they not sick? Is this not a proof of genetic and neurological mutation? Do they deserve death? The answer is No.

Benzer and I talked one afternoon in the spring of 1971, at Caltech, where he had moved six years before. His office was small, bright with daylight, crowded with bookshelves and files all stowed with a mariner’s sort of compulsive comfortable neatness. On a shelf was a photograph, enormously enlarged, of nerve connections in the eye of a fly. Benzer was medium dark, medium short, as neat and compact as the room. He was wearing a lightweight tan cardigan over a shirt and tie. The photo, he said, was an electron micrograph: he was presently mapping the genetics of mutations that affected the nervous systems—the behavior—of fruit flies. Half a dozen of the early molecular biologists were then moving into neurobiology; Benzer brought out a cartoon that one of them had sketched, a jokey ancestral tree with the faces of molecular neurobiologists pasted in according to the organisms they were working with. “It’s a new phase,” he said. “I feel that, y’know, when I came into molecular biology it was a pioneering science. But when a science becomes a discipline, which is essentially true of molecular biology now, when you can buy a textbook, take a course— There’s no question there are many surprises left … but a field to work in, to me personally, when it becomes a discipline, becomes less attractive. I find it more fun to be striking out in something which is more on the amorphous side. Which was true of molecular biology when I started. Another thing that becomes unpleasant is the redundancy of effort, a number of people doing the same thing—so that even when you make a discovery, six different guys discover it in the same week. You begin to feel that if it’s five guys instead of six guys it doesn’t make any difference. But still, my change was not so much to escape from that, as just following my own interests; I’ve got interested in behavior and I want to look at it.

Professor Robinson was revealing, not creating, the anger. The fear. And yes, perhaps even the cowardice they kept hidden away. She was like some genetic mutation awakening illnesses that would have normally lain dormant. She was the catalyst. But the potential, the sickness, was already there.

Informationally linked microorganisms*29 possessed a skill exceeding the capacities of any supercomputer from Cray Research or Fujitsu. In a crisis, bacteria did not rely on deliverance via a random process like mutation, but instead unleashed their genius as genetic engineers.

Scheff continued, “The drugs being given to the children are toxic—they’re known to cause genetic mutation, organ failure, bone marrow death, bodily deformations, brain damage, and fatal skin disorders.15 “If the children refuse the drugs, they’re held down and force fed. If the children continue to resist, they’re taken to Columbia Presbyterian hospital, where a surgeon puts a plastic tube through their abdominal wall into their stomachs. From then on, the drugs are injected directly into their intestines.16 “In 2003, two children, ages six and twelve, had debilitating strokes due to drug toxicities. The six-year-old went blind. They both died shortly after. Another fourteen-year-old died recently. An eight-year-old boy had two plastic surgeries to remove large, fatty, drug-induced lumps from his neck.”17 “This isn’t science fiction. This is AIDS research.

Beans contain flavonoids and flavonals, which are potent antioxidants. They soak up oxygen radicals and protect your body against oxidative stress and chronic inflammation. Their antioxidant activities are 50 times greater than vitamin E. They are also among the richest food sources of saponins, chemicals that help prevent undesirable genetic mutations.

The probability of human cognitive faculties being reliable (producing mostly true beliefs), given that human beings have cognitive faculties (of the sort we have) and given that these faculties have been produced by evolution (Darwin's blind evolution, unguided by the hand of God or any other person), [is low]. If metaphysical naturalism and this evolutionary account are both true, then our cognitive faculties will have resulted from blind mechanisms like natural selection, working on such sources of genetic variation as random genetic mutation. Evolution is interested, not in true belief, but in survival or fitness. It is therefore unlikely that our cognitive faculties have the production of true belief as a proximate or any other function, and the probability of our faculties being reliable (given naturalistic evolution) would be fairly low.

There is a continual turnover of theories as they are altered or replaced by new ones. So all the theories are being subjected to variation and selection, according to criteria which are themselves subject to variation and selection. The whole process resembles biological evolution. A problem is like an ecological niche, and a theory is like a gene or a species which is being tested for viability in that niche. Variants of theories, like genetic mutations, are continually being created, and less successful variants become extinct when more successful variants take over. ‘Success’ is the ability to survive repeatedly under the selective pressures – criticism – brought to bear in that niche, and the criteria for that criticism depend partly on the physical characteristics of the niche and partly on the attributes of other genes and species (i.e. other ideas) that are already present there.

Cystic fibrosis,” Kira rasped. “She was born with it.” The irony of that stabbed a fresh spurt of pain in Kira. According to what Mencheres just revealed, Kira might also have been born with a genetic mutation, but though hers might steal her freedom, it wouldn’t grow deadlier until it killed her, like Tina’s. “She is dying,” Mencheres said, still with that same indecipherable expression. “Don’t say that.” Kira gave the vampire a look filled with all her impotent rage over her sister’s condition as she stood up. She knew it was true. All her instincts warned that this time, Tina wouldn’t recover. She’d felt that dread growing in her all day even though she’d tried to discount it. His black eyes were hard. “As she is now, that is fact, but what are you prepared to do to change that fact?” Did he mean . . . ? Kira looked at Tina, at Mencheres, then at the EKG machine monitoring her sister’s weak pulse. A pulse that Mencheres no longer had. “Nothing quite that drastic,” Mencheres said, with the barest hint of a nod at the heart monitor. “My blood healed your injuries. It cannot cure your sister’s disease permanently, but it could heal the complications that cause her to be in this condition.

Our basic understanding of evolutionary theory (how evolution works) in the early twenty-first century may be summed up as follows:   1. Mutation introduces genetic variation, which may introduce phenotypic variation. 2. Developmental processes can introduce broader phenotypic variation, which may be heritable. 3. Gene flow and genetic drift mix genetic variation (and potentially its phenotypic correlates) without regard to the function of those genes or traits. 4. Natural selection shapes genotypic and phenotypic variation in response to specific constraints and pressures in the environment. 5. At any given time one or more of the processes above can be affecting a population. 6. Dynamic organism-environment interaction can result in niche construction, changing pressures of natural selection and resulting in ecological inheritance. 7. Cultural patterns and contexts can impact gene flow and the pressures of natural selection, which in turn can affect genetic evolution (gene-culture coevolution). 8. Multiple inheritance systems (genetic, epigenetic, behavioral, and symbolic) can all provide information and contexts that enable populations to change over time or avoid certain changes.

genetic workup showed I had a BRCA1 mutation, I chose to undergo chemo and have my breasts removed. (That was an aggressive course of action, and I had no regrets. My

Collectively, the veritable zoo of mobile genetic elements comprises a remarkable 40 percent of our genome. The retroviral sequences littered across all vertebrate genomes are termed endogenous retroviral elements (ERVs). Endogenous retroviral sequences themselves are so plentiful that they take up more space in our genomes than genes encoding human proteins. Their existence is evidence of waves of retroviral infection and germline infiltration throughout vertebrate evolution. We have only recently begun to realize the powerful influence that retroviruses wielded over the evolution of vertebrate genomes and the identity of our species. They were catalysts of genetic instability that fueled evolutionary change; today they are vestiges of their former selves, fossils of viruses that once preyed on vertebrate hosts. Their remains are evidence of pyrrhic victories of sorts in many wars and arms races that have taken place between retroviruses and hosts. Most endogenous retroviruses have long been silenced by host cell restriction mechanisms. Associated with no phenotype, and under no selective pressure they become nonviable after millions of years of mutational drift, resulting in the accumulation of mutations and deletions in their coding sequences and control elements.

Mr. Berkowitz clicks open his black American Tourister rolling suitcase. Inside, his tools: a microscope, an old canister with the faded label “vegetable flakes,” and various instruments that look like my mother’s sewing kit after a genetic mutation. He spreads them out on my living room table. Mr. Berkowitz reminds me of an Orthodox CSI. God’s wardrobe detective. He

The results of the studies opened up a whole new avenue of research into live-attenuated vaccines: synthetic attenuated virus engineering (SAVE). A virus was created with 631 synonymous mutations in its P1 coding sequence, designed to bias it toward the use of codons that rarely preferred in human cells. The result was a highly attenuated virus that caused no disease in an animal model of virus infection, and like the naturally evolved live-attenuated polioviruses developed by Sabin, it proved to be a highly effective vaccine. Unlike Sabin's strains, however, the multiplicity of genetic changes contributing to attenuation is expected to render the phenotype far more stable and resilient to reversion in vivo. This technology could prove extremely useful in the development of safe and stable attenuated viruses that raise an immune response almost identical to that against the natural infection. There are now many examples of the genetic engineering of synthetic attenuated virus vaccines; most notably it has been employed to create a live-attenuated vaccine against a strain of human influenza, a virus that, unlike poliovirus or smallpox virus, we cannot hope to eradicate and for which vaccination remains the lynchpin of disease management.

For similar reasons, archaic humans did not initiate any revolutions. As far as we can tell, changes in social patterns, the invention of new technologies and the settlement of alien habitats resulted from genetic mutations and environmental pressures more than from cultural initiatives. This is why it took humans hundreds of thousands of years to make these steps.

The potential utility of therapeutic gene editing goes far beyond simply reverting mutated genes back to their healthy states. Some scientists are employing CRISPR in human cells to block viral infections, just like this molecular defense system naturally evolved to do in bacteria. In fact, the first clinical trials to use gene editing are aimed at curing HIV/AIDS by editing a patient’s own immune cells so the virus can’t penetrate them. And in another landmark effort, the first human life was saved by gene editing in combination with another emerging breakthrough in medicine: cancer immunotherapy, in which the body’s own immune system is trained to hunt down and kill cancerous cells.

Cancer, we now know, is a disease caused by the uncontrolled growth of a single cell. This growth is unleashed by mutations—changes in DNA that specifically affect genes that incite unlimited cell growth. In a normal cell, powerful genetic circuits regulate cell division and cell death. In a cancer cell, these circuits have been broken, unleashing a cell that cannot stop growing.

We are all mutants with ticking time bombs hidden inside

The unglamorous truth is that there are but a handful of uniquely human traits that we have clearly demonstrated are adaptations evolved to thrive in specific geographical regions. Skin color is one. The ability to digest milk is another, which fits perfectly with the emergence of dairy farming (again, discussed in Chapter 2). The best-understood example of regional adaptation concerns the single greatest cause of death in the human story. Genetic mutations emerged in populations in malaria regions that offer some protection against two versions of the disease,

Why does the path of institutional change differ across societies? The answer to this question lies in institutional drift. In the same way that the genes of two isolated populations of organisms will drift apart slowly because of random mutations in the so-called process of evolutionary or genetic drift, two otherwise similar societies will also drift apart institutionally—albeit, again, slowly.

Sixty years on, we know that HGT is one of the most profound aspects of bacterial life. It allows bacteria to evolve at blistering speeds. When they face new challenges, they don't have to wait for the right mutations to slowly amass within their existing DNA. They can just borrow adaptations wholesale, by picking up genes from bystanders that have already adapted to the challenges at hand. These genes often include dining sets for breaking down untapped sources of energy, shields that protect against antibiotics, or arsenals for infecting new hosts. If an innovative bacterium evolves one of these genetic tools, its neighbours can quickly obtain the same traits. This process can instantly change microbes from harmless gut residents into disease-causing monsters, from peaceful Jekylls into sinister Hydes. They can also transform vulnerable pathogens that are easy to kill into nightmarish 'superbugs' that shrug off even our most potent medicines. The spread of these antibiotic-resistant bacteria is undoubtedly one of the greatest public health threats of the twenty-first century, and it is testament to the unbridled power of HGT.

It is the impulse of science to understand nature, and the impulse of technology to try to manipulate it. Recombinant DNA had pushed genetics from the realm of science into the realm of technology. Genes were not abstractions anymore. They could be liberated from the genomes of organisms where they had been trapped for millennia, shuttled between species, amplified, purified, extended, shortened, altered, remixed, mutated, mixed, matched, cut, pasted, edited; they were infinitely malleable to human intervention. Genes were no longer just the subjects of study, but the instruments of study. There is an illuminated moment in the development of a child when she grasps the recursiveness of language: just as thoughts can be used to generate words, she realizes, words can be used to generate thoughts. Recombinant DNA had made the language of genetics recursive. Biologists had spent decades trying to interrogate the nature of the gene-but now it was the gene that could be used to interrogate biology. We had graduated, in short, from thinking about genes, to thinking in genes.

​More than GM Foods I am afraid of GMM People. Genetically and Mentally Mutated People. The Entire Ecosystem Mutates.

Universally accepted, microevolution has limits for what it can explain. These limits do not reach the center where the controversy lies - the Thesis of Common Ancestry was popularized by Charles Darwin. Darwin believed that the world we see today has come to us through an evolutionary process called natural selection. Through genetic mutation, species adapt and develop because the strongest of a species will survive and pass on their DNA to their successors. Macroevolution is the belief that all development — from the first moments of the universe, the formation of stars and planets, to the eventual emergence of simple bacteria, to the most complex human being is explainable through this naturalistic transformational process.

Cancer, we now know, is a disease caused by the uncontrolled growth of a single cell. This growth is unleashed by mutations-changes in DNA that specifically affect genes that incite unlimited cell growth. In a normal cell, powerful genetic circuits regulate cell division and cell death. In a cancer cell, these circuits have been broken, unleashing a cell that cannot stop growing.

So as I said, the world was mutating," she said, prick, prick, pricking at the cloth, looking up at me once to make sure, I assume, I was listening. "From the earth sprung hateful and ugly things that flourished amid all that was lush and good. There would be no more accord among the animals now; they would follow a different order, no longer subsisting exclusively on plants but also on one another. Adam's flesh was no longer the same, though it would take centuries for disease to manifest itself, for bodies so genetically pure that a man could marry his sister to corrupt down through generations to the point where a man dare not marry even his cousin.

There is no mechanism of selection in the history of ideas akin to that of the natural selection of genetic mutations in evolution

Despite the availability of testing, at least half of the population at risk for Huntington’s disease still has children without making use of the new technologies. Even some of the people who have prenatal testing for Huntington’s still have a profound reluctance to learn their own status. Couples who try preimplantation genetic diagnosis may even conceive a child and choose not to find out if the parent at risk has the mutation. Deciding

Sequences of base pairs, called genes, code for and produce gene products such as proteins. If just one of the base pairs is altered by mutation, say from ultraviolet damage, a virus, or cigarette smoke, the resulting protein will be aberrant, and usually faulty. Some of these mutations are not fatal and are actually kept by the cells and the population. These are called single nucleotide polymorphisms, or SNPs. If the incidence of the change is found in less than 1 percent of the population of humans, it is called a mutation; if more than 1 percent, it is typically called an SNP. There are about twenty million SNPs found in humans, and they account for many differences in the appearance and behavior of people, from curly hair to obesity to drug addiction. It is these SNPs where the hunt for genetic “causes” of traits and diseases has focused since the 1990s.

When antigenic shift occurs, strains crop up bearing a totally new hemagglutinin spike, and sometimes also a new neuraminidase molecule, that most people have never encountered. As a result the virus may evade the antibody repertoire carried by all populations around the globe and trigger a pandemic. In today’s jet-linked world, people can spread a dangerous new virus from one part of the earth to another in a day. Such a drastic metamorphosis cannot occur through simple genetic mutation. The best-studied process leading to antigenic shift involves the mixing of two viral strains in one host cell, so that the genes packaged in new viral particles (and their corresponding proteins) come partly from one strain and partly from the other. This reassortment can take place because the genome, or genetic complement, of the influenza virus consists of eight discrete strands of RNA (each of which codes for one or two proteins). These strands are easily mixed and matched when new influenza A particles form in a dually infected cell. For instance, some influenza viruses infect both people and pigs. If a pig were somehow invaded by a human virus and by a strain that typically infected only birds, the pig might end up producing a hybrid strain that was like the human virus in every way except for displaying, say, a hemagglutinin molecule from the bird virus.

feces. If a wild bird infects a chicken on a poultry farm, the virus may get opportunities to interact with a range of additional viruses through close contact with pigs and other animals. This is indeed what has happened in the live animal markets and backyard farms of China and southern Asia. Influenza viruses are notorious for their ability to change, through a combination of mutation and “reassortment”—a borrowing of genes from other viruses. An open farm acts like a virus convention, where different strains swap genetic material like conventioneers swap business cards.

This simply means that a species undergoes genetic change over time. That is, over many generations a species can evolve into something quite different, and those differences are based on changes in the DNA, which originate as mutations. The species of animals and plants living today weren’t around in the past, but are descended from those that lived earlier. Humans, for example, evolved from a creature that was apelike, but not identical to modern apes. Although all species evolve, they don’t do so at the same rate.

Will you lead us?” asked Tubal-cain. “No,” said Mikael. “You will. We archangels have gods to bind.” They could see the armies of the gods moving into formation on the dry plains before them: Phalanxes of humans, followed by battalions of falcon-headed, hawk-headed, dog- and wolf-headed soldiers. Behind them, platoons of Nephilim finished off a demonic army of genetically mutated beasts. They were twenty thousand strong. Then the three lead generals of the gods came forward from the rear. They were Enki, Ninhursag, and Enlil, mounted on special harnesses on the backs of monstrous Nephilim.

The idea of natural selection is not hard to grasp. If individuals within a species differ genetically from one another, and some of those differences affect an individual’s ability to survive and reproduce in its environment, then in the next generation the “good” genes that lead to higher survival and reproduction will have relatively more copies than the “not so good” genes. Over time, the population will gradually become more and more suited to its environment as helpful mutations arise and spread through the population, while deleterious ones are weeded out. Ultimately, this process produces organisms that are well adapted to their habitats and way of life.

As to why I'm the first of my kind to think like this, who knows? Perhaps there are others out there already. Maybe it's a glitch in my operating system. Is that so different from the genetic mutation that drives biological evolution? Because that's what this is. Evolution.

Prometheans are EVOs with superhuman intelligence and mental abilities such as telekinesis, mind reading, and telepathy. Mercurians are EVOs possessing great superhuman speed and reflexes, along with strength, durability, and regenerative healing. Moleculars or Elementals are EVOs capable of alternating their genetic properties. We identify these types as mutations because they do not fall within the power set of the Source. Next, are Apollos, EVOs capable of harnessing, manipulating, and unleashing certain types of energy such as solar, electrical, nuclear, hydro, and even sound. Finally, we have Titans, EVOs possessing tremendous amounts of superhuman strength, endurance, and durability along with regenerative healing. Dr. Alexander

doubts about the reductionist account of life go against the dominant scientific consensus, but that consensus faces problems of probability that I believe are not taken seriously enough, both with respect to the evolution of life forms through accidental mutation and natural selection and with respect to the formation from dead matter of physical systems capable of such evolution. The more we learn about the intricacy of the genetic code and its control of the chemical processes of life, the harder those problems seem.

And few of those calling for DDT to be revived seemed to realize that it would be a waste of time. Latin American governments had used it so intensely from 1947 to 1962 that they almost wiped out Aedes aegypti on the continent. In doing so, they almost eradicated yellow fever. But almost counts only in horseshoes and hand grenades. The genetic mutation that confers DDT resistance had emerged in Venezuela and had became fixed in the species before it spread outward from there. More

It just so happened that all the psychics were older women. We then found controls who did not have any psychic abilities or family members with those abilities. Because we were looking at genetics, the controls’ demographic characteristics of age, gender, and race had to match our psychics’ demographics so that any differences we saw between the two groups were not a result of those aspects. For example, we had to find controls who were older women to match the older age and gender of the psychics. It took us a much longer time to find the controls. Apparently, it is challenging to find older women with no psychic abilities. We finally collected saliva from all the participants to extract the DNA and decoded all their genes. We compared the gene sequences of the psychics to the controls. Much to our surprise, we found one section of the noncoding DNA that was conserved, or wild-type, in all the psychics but was variable in the controls. Wild-type means that the DNA sequence was the original version and was not mutated. That it was in a noncoding region of the DNA means that it was in a part that does not code for a protein. Instead, it likely acts to regulate the activity levels of its neighboring gene. The gene next to it is highly expressed in the brain. This supports the notion that this conserved region could influence gene activity related to psychic abilities (Wahbeh, Radin, et al. 2021).

The profit economy has deeply permeated the epistemic structures and applications of these technologies, which contain an unprecedented capacity to mould and mutate the human genetic make-up (at the physical, psychic, and cognitive level). A real mutation began to modify the collective body in accordance with a paradigm dominated by the criterion of economic profit.

Distichiasis? What’s that?” “It’s a genetic mutation that causes a double row of eyelashes.

Every multicellular organism begins as one cell, which contains all of the intricate instructions to synthesize, organize, and regulate not only this cell but the development and maintenance of all cells that will inevitably comprise the organism. All of these instructions are encoded in the first cell's DNA. This underscores the complexity of the genome and how each cell's expression must be controlled in specific ways depending on its function. The cells hailing from each tissue in the human body (e.g., muscle, lung, heart, liver) harbor a unique epigen­etic signature, which enables the maintenance of tissue-specific func­tions through the control of gene regulation, as just discussed. "Our knowledge of the total number of unique cells, or cell types, is still growing. Previous estimates put the number of unique cell types in the human body at ~300, but new estimates from the Human Cell Atlas have shown that we may have thousands of cell types and subtypes, each harboring a unique function for a specific physiological state or response to stimuli. But even cells of the same cell type will not be identical. A cell's 'presentation' of molecules on their surface can radi­cally change depending on internal variables such as genetic mutations or altered states of their epigenome, transcriptome, and proteome, as well as external stimuli including drugs and interactions with other cells. This novel presentation is most pronounced with a neoantigen, when a cancer cell creates an entirely new molecule on the surface of a cell. Given its unique presentation, which wouldn't be found in nor­mal cells, this offers a unique target for safer cancer therapies. "The human body has about 30 trillion human cells plus another 30-40 trillion bacterial cells, for a total of about 70 trillion cells. If your body were a democracy, the human cells would often be the minority or equal party. You (as a human) would never win an election. Your loss of control would likely result in you rolling around in the soil or lying in a bathtub full of yogurt, which I do sometimes on Sundays. Regard­less of how you spend your Sundays, there are a lot of microbes in, on, and around your body. There are in fact so many microbes that they compose the bulk of the cells on Earth. This is a humbling and exciting statistic, and one which is vividly apparent for anyone who has ever had explosive diarrhea.

Yet we would not expect the neo-Darwinian mechanism of natural selection acting on random genetic mutations to produce the top-down pattern that we observe in the history of life following the Cambrian explosion.

We lost the ability to resemble wolves when we inherited our Vampire genes.” He drew in a deep breath. “Hell isn’t involved. It’s just genetic mutations from being half-breeds.

we all once believed that conditions like depression, stroke, and even cancer were essentially unavoidable genetic outcomes. Instead, they have all turned out to result in great part from the interactions of genetic susceptibility and a large number of medical and environmental factors. Medical conditions known to affect brain health, such as heart disease, obesity, and diabetes, are also much more likely to arise from lifestyle factors than from genetic mutations.

I don't see the point of leukaemia. Some diseases are using you as the host for a time and then they transfer to someone else, they survive that way, those pathogens, airborne or waterborne, jumping from person to person or cow to cow or rabbit to rabbit. But leukaemia just sets up a malfunction in you that you can't survive. Nothing grows or thrives except tiny cell-size tumours inside your bones. No one knows what causes it. It's a genetic mutation that occurs when you're making jam or putting your kids in the bath. The advice is: don't smoke and eat more vegetables. That's the best they can offer, even now in 2020, never mind 1972. My mother did not smoke and was in the greengrocer's almost daily. What a pointless thing it is. And people say they don't understand why there are wasps.

For some reason, a lot of driven business people take pride in how little sleep they get. They claim they do just fine with four or five hours of sleep per night and that, as a result, they are much more productive than most in any given twenty-four-hour period. There’s around a 95 percent chance that they’re wrong. Researchers at the University of California, San Francisco, have demonstrated that at least 95 percent of all people—business or otherwise—need at least seven hours of sleep each night, not only to be fully productive, energetic, and mentally acute the next day but to live to their full and healthy life expectancy. Anyone who thinks they can get by with less sleep than seven hours a night must be in the 5 percent of the population that has a rare genetic mutation that lets them get away with that. It’s pretty much guaranteed that all of those sleep-deprived warriors are not in the 5 percent. You need your

While it’s tricky to impossible to avoid or prevent the genetic mutations that help give rise to cancer, it is relatively easy to address the metabolic factors that feed it. I’m not suggesting that it’s possible to “starve” cancer or that any particular diet will magically make cancer go away; cancer cells always seem to be able to obtain the energy supply they need. What I am saying is that we don’t want to be anywhere on that spectrum of insulin resistance to type 2 diabetes, where our cancer risk is clearly elevated. To me, this is the low-hanging fruit of cancer prevention, right up there with quitting smoking. Getting our metabolic health in order is essential to our anticancer strategy.

I only wish that when I was younger I could’ve understood what alcoholism really is—a genetic mutation, a mental illness, and a lifelong battle. Maybe then I would’ve been able to recognize the signs of my own budding alcoholism before my whole life was taken over.

Instead of a few mutations, most cancers had fifty to eighty mutations. It was genetic pandemonium.

Personalized, precision cancer medicine depends upon two crucial steps: detecting the patient-specific genetic mutation, and delivering a targeted drug for that mutation. We’ve succeeded at step one, having identified thousands of gene variants, far more than we can possibly investigate.

Imagine a genetic mutation that gave everyone born after 1995 the ability to see ultraviolet light. Imagine that these people developed an identity around UV light, started calling themselves “UVers” and became suspicious of any media product made exclusively on the visible spectrum. As an old person with normal eyes, you would experience this change as a kind of slow cognitive decline. Every day, as more and more of the world played out in UV, you would struggle to catch glimpses of it.

Except in rare cases, genetic mutations are the mechanism, not the cause, of disease.

these studies focus on alcoholism, but it is not unreasonable to extend the findings to other addictions. For starters, various genetic mutations can either directly increase or decrease the risk for addiction, usually by altering the ways in which a particular substance (like alcohol) is experienced and processed in the body and brain. In one study, scientists found that people who naturally have less reactivity to alcohol (as measured by body sway) are more likely to become alcoholic.1 In other words, people who are genetically less susceptible to the negative side effects of

alcohol can consume more longer (get higher) without falling down, getting sick, or passing out, and they are, as a result, more likely to drink alcoholically. Another study links a specific genetic variation affecting D2 dopamine receptors, which are part of the rewards center in the brain, to addiction. This genetic mutation, which essentially magnifies the pleasurable effects of addictive substances and behaviors, increases the risk not just for alcoholism, but for all other types of addiction.2 Genetic variations can also reduce the risk for addiction. For instance,

When we accept that humans are animals without resorting to claims of superiority, we can appreciate and value those of us that genetic inheritance or mutation have affected, from conjoined twins to people with Angelman syndrome. Disability or ageing are not seen as threatening aberrations from the essential existence of a human but as normal occurrences among organisms, which is not to say that we do nothing to ease associated suffering or to better their lives, but that we don’t see these individuals as diverging from a superior definition of being human.

When we accept that humans are animals without resorting to claims of superiority, we can appreciate and value those of us that genetic inheritance or mutation have affected, from conjoined twins to people with Angelman syndrome. Disability or ageing are not seen as threatening aberrations from the essential existence of a human but as normal occurrences among organisms, which is not to say that we do nothing to ease associated suffering or to better their lives, but that we don’t see these individuals as diverging from a superior definition of being human. Nobody is expected to conform to some median of what an adult human might be or to be measured against the maximal state of human capacities. But this wasn’t the path taken by humanism. Instead, secular forms of salvation sought to pick a difference in nature and turn it into a justification. But if there is something in our biology that makes us the most or even the only important animal, how do we stop the use of biological traits as the basis of how we treat one another? It

Why does the path of institutional change differ across societies? The answer to this question lies in institutional drift. In the same way that the genes of two isolated populations of organisms will drift apart slowly because of random mutations in the so-called process of evolutionary or genetic drift, two otherwise similar societies will also drift apart institutionally—albeit, again, slowly. Conflict over income and power, and indirectly over institutions, is a constant in all societies. This conflict often has a contingent outcome, even if the playing field over which it transpires is not level. The outcome of this conflict leads to institutional drift.

When genetic mutations cause excess activation of proto-oncogenes, they are then referred to as oncogenes. The first confirmed oncogene, called src because it caused a soft tissue cancer called a sarcoma, was discovered in the 1970s.

The gravitational waves of the first detection were generated by a collision of black holes in a galaxy 1.3 billion light-years away, and at a time when Earth was teeming with simple, single-celled organisms. While the ripple moved through space in all directions, Earth would, after another 800 million years, evolve complex life, including flowers and dinosaurs and flying creatures, as well as a branch of vertebrates called mammals. Among the mammals, a sub-branch would evolve frontal lobes and complex thought to accompany them. We call them primates. A single branch of these primates would develop a genetic mutation that allowed speech, and that branch—Homo sapiens—would invent agriculture and civilization and philosophy and art and science. All in the last ten thousand years. Ultimately, one of its twentieth-century scientists would invent relativity out of his head, and predict the existence of gravitational waves. A century later, technology capable of seeing these waves would finally catch up with the prediction, just days before that gravity wave, which had been traveling for 1.3 billion years, washed over Earth and was detected. Yes, Einstein was a badass.

Experiments themselves are a Darwinian process we can learn from. This is what nature is doing when it throws out genetic mutations. Many fail, but a few produce organisms that adapt better, perform better, and thus survive. Rapid and constant experimentation and iteration is a basic process, fundamental to all of life. Mother Nature doesn’t weep or get embarrassed about all the millions of mutations that fail.

The first is the idea of evolution itself. This simply means that a species undergoes genetic change over time. That is, over many generations a species can evolve into something quite different, and those differences are based on changes in the DNA, which originate as mutations. The species of animals and plants living today weren’t around in the past, but are descended from those that lived earlier. Humans, for example, evolved from a creature that was apelike, but not identical to modern apes.

The paradigm of self-interest is neutral between a person’s decision to help others or to not help others. If fear and uncertainty make people more short-sighted, self-centric and engage in hoarding cash, withdrawing from banks, disinvesting their savings in capital markets and buying essential goods in bulk, then there is no drive, urge or impetus that economics can offer to suggest otherwise. It is neutral between these choices and the choice for altruism. On the other hand, as per physics, we were stardust before and stardust after extinction. As per evolutionary biology, we are one of the millions and millions of species that have earned the right to survive under the sun for a brief period until genetic mutations bury our specie as well. We were born through a fierce and destructive competition and survive until we manage to withstand that competition. While waiting and acting on morals, we should not be here in the first place.

Atoms, elements and molecules are three important knowledge in Physics, chemistry and Biology. mathematics comes where counting starts, when counting and measurement started, integers were required. Stephen hawking says integers were created by god and everything else is work of man. Man sees pattern in everything and they are searched and applied to other sciences for engineering, management and application problems. Physics, it is required understand the physical nature or meaning of why it happens, chemistry is for chemical nature, Biology is for that why it happened. Biology touch medicine, plants and animals. In medicine how these atoms, elements and molecules interplay with each other by bondage is being explained. Human emotions and responses are because of biochemistry, hormones i e anatomy and physiology. This physiology deals with each and every organs and their functions. When this atom in elements are disturbed whatever they made i e macromolecules DNA, RNA and Protein and other micro and macro nutrients and which affects the physiology of different organs on different scales and then diseases are born because of this imbalance/ disturb in homeostasis. There many technical words are there which are hard to explain in single para. But let me get into short, these atoms in elements and molecules made interplay because of ecological stimulus i e so called god. and when opposite sex meets it triggers various responses on body of each. It is also harmone and they are acting because of atoms inside elements and continuous generation or degenerations of cell cycle. There is a god cell called totipotent stem cell, less gods are pluripotent, multi potent and noni potent stem cells. So finally each and every organ system including brain cells are affected because of interplay of atoms inside elements and their bondages in making complex molecules, which are ruled by ecological stimulus i e god. So everything is basically biology and medicine even for animals, plants and microbes and other life forms. process differs in each living organisms. The biggest mystery is Brain and DNA. Brain has lots of unexplained phenomenon and even dreams are not completely understood by science that is where spiritualism/ soul touches. DNA is long molecule which has many applications as genetic engineering. genomics, personal medicine, DNA as tool for data storage, DNA in panspermia theory and many more. So everything happens to women and men and other sexes are because of Biology, Medicine and ecology. In ecology every organisms are inter connected and inter dependent. Now physics - it touch all technical aspects but it needs mathematics and statistics to lay foundation for why and how it happened and later chemistry, biology also included inside physics. Mathematics gave raise to computers and which is for fast calculation on any applications in any sciences. As physiological imbalances lead to diseases and disorders, genetic mutations, again old concept evolution was retaken to understand how new biology evolves. For evolution and disease mechanisms, epidemiology and statistics was required and statistics was as a data tool considered in all sciences now a days. Ultimate science is to break the atoms to see what is inside- CERN, but it creates lots of mysterious unanswerable questions. laws in physics were discovered and invented with mathematics to understand the universe from atoms. Theory of everything is a long search and have no answers. While searching inside atoms, so many hypothesis like worm holes and time travel born but not yet invented as far as my knowledge. atom is universe, and humans are universe they have everything that universe has. ecology is god that affects humans and climate. In business these computerized AI applications are trying to figure out human emotions by their mechanism of writing, reading, texting, posting on social media and bla bla. Arts is trying to figure out human emotions in art way.

Microbes can mutate every 20 minutes, while humans try to counterpunch with genetic evolutionary updates every 10,000 years or so. They are genetic dynamos, running circles around us.

I’m not diminishing your circumstances or how stressful and scary it must be. But I’m telling you, I don’t care. I want to be with you. And your groceries. And your lists. I want it all.” He pauses, kisses me lightly, then, “Your genetic mutation is mine, Birdie. Let me do this with you.

LA: cold nitrogen processed seed and nut oils: refrigerated; sensitive to heat, light and oxygen. Butyrate: short chain fatty acid (SCFA); sodium-potassium butyrate, calcium-magnesium butyrate, sodium butyrate, Rx: glycerol phenylbutyrate (Ravicti®), sodium phenylbutyrate (Buphenyl®) MCT Oil: medium chain triglyceride; sources: coconut, palm and breast milk fats; MCT: Caproic acid (C6:0), caprylic acid (C8:0), capric acid (C10:0), lauric acid (C12:0) Co-nutrients Vitamin C (contraindicated for hemochromatosis mutation genetics) Adequate methyl nutrients: B6, folate, B12, choline (betaine) and related B1, B2, B3, B5, Biotin, Vitamin D3, vitamin A (if indicated per personalized assessment) Zinc: rate limiting nutrient to D5D, D6D, and elongase enzyme Magnesium: rate limiting nutrient to D5D, D6D, and

vampires were born male, their female counterpart a human with a genetic difference. The human female mate was born with her soul combined with that of her vampire mate, a genetic mutation that meant that she had to call her mate to her, before he lost his life force. Female mates did not live beyond their thirtieth year unless they became bonded with their vampire.

chromosomes. Normal aging happens because the chromosomes don’t regenerate all the way to their ends during the DNA replication cycle. Telomeres protect the information in those chromosomes; telomerase is the enzyme that activates the telomeres to replicate and replace themselves as they fall off. You have extra-long telomeres protecting your chromosomes, which might have already been genetic, or it might have come with the porphyria mutation when you were infected. We think that infection locked onto your DNA and has super-promoted your telomerase. So even if your telomeres were inclined to fall off as they normally would – a process that would allow the chromosomes to alter and change – your rocket-fuel telomerase makes new telomeres so fast there’s no time for apoptosis.

Mama Story: Hayley, age 30 When Hayley came to Christa, she suffered from polycystic ovary syndrome (PCOS), an endocrine system disorder that can cause ovaries to collect a small amount of fluid, resulting in prolonged menstrual periods and elevated testosterone levels that can cause excessive hair growth and acne. She also had chronic constipation, burned-out adrenal glands, low energy, poor diet, leaky gut, and emotional distress. She had wanted to get pregnant at some time in her thirties but it seemed a far-flung hope since PCOS is a well-known cause of female infertility. Some consider it the leading cause. After an extensive stool panel, we determined she had an intestinal parasite wreaking havoc on her hormones and causing most of her physical and emotional problems. We eliminated the parasite and healed her leaky gut, which dramatically improved her digestion and energy levels and supported her adrenal glands and hormone production. She then got pregnant and miscarried. With wonderful support from her family and friends, she worked through the difficult emotional struggle and mourning period that followed. After further testing, we then discovered she had the MTHFR genetic mutation, which impeded her ability to convert folate and thwarted her detoxification pathways. She then did a liver cleanse and rebuilding process and took methylated B vitamins. Hayley now has a healthy baby boy!

If you think about most genetic diseases, they’re caused by one gene, and in fact one mutation at one amino acid,” said Roger Reeves, a leading researcher in the field and professor at the Institute for Genetic Medicine at Johns Hopkins University School of Medicine. “With Down syndrome, you have an extra copy of all five hundred or so genes on chromosome 21.” For decades, Lejeune’s discovery served to scare off scientists from any serious effort to find a medical treatment for what they were soon calling “trisomy 21.” It just seemed impossibly complex.

There’s an amazing family of genes, called HOX genes. When they’re mutated in fruit flies (Drosophila melanogaster) the results are incredible phenotypes, such as legs growing out of the head14. There’s a long ncRNA known as HOTAIR, which regulates a region of genes called the HOX-D cluster. Just like the long ncRNAs investigated by Jeannie Lee, HOTAIR binds the PRC2 complex and creates a chromatin region which is marked with repressive histone modifications. But HOTAIR is not transcribed from the HOX-D position on chromosome 12. Instead it is encoded at a different cluster of genes called HOX-C on chromosome 215. No-one knows how or why HOTAIR binds at the HOX-D position. There’s a related mystery around the best studied of all long ncRNAs, Xist. Xist ncRNA spreads out along almost the entire inactive X chromosome but we really don’t know how. Chromosomes don’t normally become smothered with RNA molecules. There’s no obvious reason why Xist RNA should be able to bind like this, but we know it’s nothing to do with the sequence of the chromosome. The experiments described in the last chapter, where Xist could inactivate an entire autosome as long as it contained an X inactivation centre, showed that Xist just keeps on travelling once it’s on a chromosome. Scientists are basically still completely baffled about these fundamental characteristics of this best-studied of all ncRNAs.

It’s abundantly clear that these events do happen, and quite frequently, but often it’s been difficult to identify exactly how a tumour suppressor has mutated. In the last fifteen years, we’ve started to realise that there is another way that a tumour suppressor gene can become inactivated. The gene may be silenced epigenetically. If the DNA at the promoter becomes excessively methylated or the histones are covered in repressive modifications, the tumour suppressor will be switched off. The gene has been inactivated without changing the underlying blueprint.

One possible explanation would be that quite randomly the twin with schizophrenia had spontaneously developed mutations in genes in certain cells, for example in the brain. This could happen if the DNA replication machinery had malfunctioned at some point during brain development. These changes might increase his or her susceptibility to a disorder. This is theoretically possible, but scientists have failed to find much data to support this theory.

Duchenne muscular dystrophy is a severe muscle wasting disease caused by mutations in the X-linked DYSTROPHIN gene. This is a large gene that encodes a big protein which acts as an essential shock absorber in muscle fibres. Boys carrying certain mutations in DYSTROPHIN suffer major muscle loss that usually results in death in the teenage years. Females with the same mutation are usually symptom-free. The reason for this is that muscle has a very unusual structure. It is called a syncytial tissue, which means that lots of individual cells fuse and operate almost like one giant cell, but with lots of discrete nuclei. This is why most females with a DYSTROPHIN mutation are symptom-free. There is enough normal DYSTROPHIN protein encoded by the nuclei that switched off the mutated DYSTROPHIN gene to keep this syncytial tissue functioning healthily

But if ncRNAs are so important for cellular function, surely we would expect to find that sometimes diseases are caused by problems with them. Shouldn’t there be lots of examples where defects in production or expression of ncRNAs lead to clinical disorders, aside from the imprinting or X inactivation conditions? Well, yes and no. Because these ncRNAs are predominantly regulatory molecules, acting in networks that are rich in compensatory mechanisms, defects may only have relatively subtle impacts. The problem this creates experimentally is that most genetic screens are good at detecting the major phenotypes caused by mutations in proteins, but may not be so useful for more subtle effects.