What if evolution is wrong

Chalmers AF. What is this thing called science? Indianapolis: Hackett; Chi MTH. Common sense conceptions of emergent processes: why some misconceptions are robust. J Learn Sci. J Educ Psychol. Chinn CA, Samarapungavan A. Distinguishing between understanding and belief. Theory Pract. Cho MH, Lankford DM, Wescott DJ, Exploring the relationships among epistemological beliefs, nature of science, and conceptual change in the learning of evolutionary theory.

Evol: Educ Outreach. Clark CA. How secondary students interpret instances of biological adaptation. J Bio Educ. Cobern WW. Belief, understanding, and the teaching of evolution. The nature of science and the role of knowledge and belief. Colburn A, Henriques L. Clergy views on evolution, creationism, science and religion.

Cooper RA. The goal of evolution instruction: should we aim for belief or scientific literacy? The threat from creationism to the rational teaching of biology. Biol Resch. Coyne JA. Why evolution is true. New York: Viking; a. Seeing and believing. The New Republic. Davson-Galle P. Dawkins R. The blind watchmaker. Why the evidence of evolution reveals a universe without design. Is science a religion? The God delusion. Boston: Houghton Mifflin; What do secondary school boys understand about evolution and heredity before they are taught about the topics.

Deniz H, Donnelly LA. Repts Nat Ctr Sci Educ. Dennett DC. Breaking the spell: religion as a natural phenomenon. New York: Viking; Denton M. Evolution: a theory in crisis. New developments in science are challenging orthodox Darwinism.

Diamond J, editor. Virus and the whale: exploring evolution in creatures small and large. Arlington: NSTA; Accessed 18 Feb Dobzhansky T. Nothing in biology makes sense except in light of evolution. Am Biol Teach ;— Evolution and religion: attitudes of Scottish first year biology and medical students to the teaching of evolutionary biology. Biosci Educ E-Journal. Duschl R, Grandy RE. Demarcation in science education.

Toward an enhanced view of scientific method. Epistemology and science education. Understanding the evolution vs. New York: Routledge; Edis T. An illusion of harmony: science and religion in Islam. Amherst: Prometheus Books; Ellis J.

How science works: evolution. Dordrecht: Springer; Evans EM. The emergence of beliefs about the origins of species in school-age children. Merrill-Palmer Q.

Beyond scopes: why creationism is here to stay. Imagining the impossible: the development of magical, scientific, and religious thinking in contemporary society. Cambridge: Cambridge University Press; b. Cognitive and contextual factors in the emergence of diverse belief systems: creation versus evolution. Cogn Psychol. Conceptual change and evolutionary biology: a developmental analysis.

In: Vosniadou S, editor. International handbook of research on conceptual change. The 95 percent solution. School is not where most Americans learn most of their science.

Am Sci. Farber P. Teaching evolution and the nature of science. Farley J. Intern J Sci Educ. Fine C. A mind of its own: how your brain distorts and deceives. Fingarette H. Forrest B, Gross PR. The wedge of intelligent design. Oxford: Oxford University Press; Freeman S, Herron JC. Evolutionary analysis. Boston: Pearson Benjamin Cummings; Futuyma DJ. Sunderland: Sinauer Associates; Gauch HG.

Scientific method in practice. Gibson MT. Culture wars in state education policy: a look at the relative treatment of evolutionary theory in state science standards. Soc Sci Q. Gish DT. Evolution: the fossils still say NO! El Cajon: Institute for Creation Research; Golinski J. Making natural knowledge. Constructivism and the history of science. The role of teleological thinking in learning the Darwinian model of evolution.

Wishful thinking and source monitoring. Mem Cog. Gould SJ. Nat Hist. New York: Norton; pp. Grantham TA. Hierarchical approaches to macroevolution: recent work on species selection and the effect hypothesis. Ann Rev Ecol Syst. Hierarchies in evolution. Palaeobiology II. Oxford: Blackwell Science; Greene ED. Gregory TR. Understanding evolutionary trees. Understanding natural selection: essential concepts and common misconceptions. Griffiths M. The cognitive psychology of gambling.

J Gamb Stud. Haack S. Defending science — within reason. Between scientism and cynicism. Paperback edition. Amherst, NY: Prometheus Books; ; p. Hacking I. The emergence of probability. Harmon-Jones E, Mills J, editors. Cognitive dissonance. Progress on a pivotal theory in social psychology. Harrison P. In: Harrision P, editor. The Cambridge companion to science and religion.

Harvey N. Wishful thinking impairs belief-desire reasoning: a case of decoupling failure in adults? Hazen RM, Trefil J. Science matters: achieving scientific literacy. New York: Anchor Books; Evolutionary principles and their practical application. Evol Appl.

The fact of evolution: implications for science education. Hofstadter R. Anti-intellectualism in American life. New York: Knopf; Hokayem H, BouJaoude S. Holland JH. Emergence: from chaos to order.

Reading: Helix Books; Hull DL. Defining Darwinism. Isaacowitz DM. The gaze of the optimist. Personal Soc Psych Bull. Isaak M. The counter-creationism handbook. Westport: Greenwood; Jakobi SR. Unrealistic optimism in early-phase oncology trials. Ethics Hum Res. Teaching evolution using historical arguments in a conceptual change strategy.

Johnson PE. Darwin on trial. Washington, DC: Regnery Gateway; Reason in the balance. The case against naturalism in science, law and education. Downers Grove: InterVarsity; Jungwirth E. The problem of teleology in biology as a problem of biology-teacher education. Cultural cognition of scientific consensus. Jour Risk Res. Charles Darwin and evolution: illustrating human aspects of science.

Kampourakis K, Zogza V. Kelemen D. Why are rocks pointy? Dev Psychol. Beliefs about purpose: on the origins of teleological thought. The descent of mind: psychological perspectives on hominid evolution. New York: Oxford University Press; b. Trends Cogn Sci. Teleological minds: how natural intuitions about agency and purpose influence learning about evolution.

Evolution challenges: integrating research and practice in teaching and learning about evolution. Oxford: Oxford University Press; ; in press. Kida T. The six basic mistakes we make in thinking. Krizan Z, Windschitl PD. Wishful thinking about the future: does desire impact optimism? Soc Pers Psychol Compass. Kugler C. Lachman SP. One nation under God: religion in contemporary American society. New York: Harmony Books; Largent MA.

Lawson AE. Predicting science achievement: the role of developmental level, disembedding ability, mental capacity, prior knowledge and beliefs. A review of research on formal reasoning and science teaching. Formal reasoning ability and misconceptions concerning genetics and natural selection. Lawson AE, Weser J. The rejection of nonscientific beliefs about life: effects of instruction and reasoning skills.

Learning about evolution and rejecting a belief in special creation: effects of relative reasoning skill, prior knowledge, prior belief and religious commitment. Lazar A. Deceiving oneself or self-deceived? Lederman NG. Nature of science: past, present, and future. Handbook of research on science education. Mahwah: Erlbaum; Lennox JG. Darwin was a teleologist. Biol Philos.

Liang C, Dunn P. In: Are entrepreneurs optimistic, realistic, both or fuzzy? Relationship between entrepreneurial traits and entrepreneurial learning. Acad Entrep J. Accessed 19 Jul Lipps J. The decline of reason? They were always prone to telling "just-so stories" — spinning plausible tales about why some trait might be adaptive, instead of demonstrating that it was — and numerous recent studies have begun to chip away at what evidence there was.

That waist-to-hip ratio finding, for example, doesn't seem to hold up in the face of international and historical research. And now, if epigenetics and other developments are coming to suggest that environment can alter heredity, the very terms of the debate — of nature versus nurture — suddenly become shaky.

It's not even a matter of settling on a compromise, a "mixture" of nature and nurture. Rather, the concepts of "nature" and "nurture" seem to be growing meaningless. What does "nature" even mean if you can nurture the nature of your descendants? All our popular notions about talent and "genetic gifts", he points out, start to collapse if the eating habits of Tiger Woods's ancestors, for example, might have played a role in Woods's golfing abilities.

Woods always crops up in discussions on the origins of genius; more recently, he has started cropping up in evolutionary psychology discussions about whether promiscuity is inevitable. The question is how much nuance will carry over into the public sphere.

We're stuck with a pretty limited way of viewing all this, and I think part of that comes from the terms" — such as nature and nurture — "that we have. Among the arsenal of studies at Shenk's disposal is one published last year in the Journal of Neuroscience, involving mice bred to possess genetically inherited memory problems.

As small recompense for having been bred to be scatterbrained, they were kept in an environment full of stimulating mouse fun: plenty of toys, exercise and attention. Key aspects of their memory skills were shown to improve, and crucially so did those of their offspring, even though the offspring had never experienced the stimulating environment, even as foetuses. And then there is Jerry Fodor, the American philosopher.

I started reading What Darwin Got Wrong, the new book he has co-authored with the cognitive scientist Massimo Piattelli-Palmarini, one morning, along with that day's first coffee. A few pages later, as the coffee kicked in, I grasped with astonishment what Fodor had done. He hadn't just identified evidence that natural selection was more complicated than previously thought — he'd uncovered a glaring flaw in the whole notion!

Natural selection, he explains, simply "cannot be the primary engine of evolution". I got up and refilled my cup. But by the time I returned, his argument had slipped from my grasp.

Suddenly, he seemed obviously wrong, tied up in philosophical knots of his own creation. I alternated between these two convictions. Was Fodor's critique so devastatingly correct that his critics — Dawkins, Dennett, the Cambridge philosopher Simon Blackburn, and many others — simply couldn't see it?

Had he actually managed to. I called Fodor and asked him to explain his point in language an infant school pupil could understand. If we're right that Darwin and Darwinists have missed the point we've been making for years, that's not because it's a simple point and Darwin was stupid. It's a really complicated issue. Fodor's objection is a distant cousin of one that rears its head every few years: doesn't "survival of the fittest" just mean "survival of those that survive", since the only criterion of fitness is that a creature does, indeed, survive and reproduce?

The ones who survive! The 'survival of the fittest' would be a joke if it weren't part of the belief system of a fanatical cult infesting the Scientific Community. This argument, perhaps uniquely among all arguments ever made by Coulter, feels persuasive, not least because it is a reasonable criticism of some pop-Darwinism. In fact, though, it's entirely possible for scientists to measure fitness using criteria other than survival, and thus to avoid circular logic.

For example, you might hypothesise that speed is a helpful thing to have if you're an antelope, then hypothesise the kind of leg structure you'd want to have, as an antelope, in order to run fast; then you'd examine antelopes to see if they do indeed have something approximating this kind of leg structure, and you'd examine the fossil record, to see if other kinds of leg died out.

But with genome sequencing they were revealed to be not only not bacteria, but more different from bacteria than they are from us in terms of their genomes. He was a microbiologist at the University of Illinois, in Urbana, in the middle of the American prairie, working away during the late s and early s. He was deeply interested in the early history of life on Earth, going way back to the beginning of cellular and pre-cellular life close to 4 billion years ago.

He decided the way to do it would be to go inside living cells, find a single molecule common to all forms of life, pull that molecule out, sequence its genomic letters, and then collect paragraphs of those letters for one organism and another and compare them to see who was related to whom, how distantly, how closely, and the way life had diverged over billions of years. He then made the discovery that some of these creatures that looked like bacteria, were, in fact, not bacteria at all but the archaea , this third kingdom of life.

That discovery got him on the front page of the New York Times on November 3, I wrote a previous book about emerging diseases, like Ebola, and much work has been done on that at Porton Down. The particular bug is called shigella flexneri , and was isolated from a British soldier named Ernest Cable in during WWI, when he died in a hospital in France from dysentery, which killed a lot of soldiers. This specimen was tucked away at Porton Down until about a decade ago when one tube of the samples was pulled out, thawed, regrown in a laboratory by a team of scientists led by one Kate Baker, and its genome examined.

Lo and behold! One of the things they found out about this sample of bacteria was that it was already resistant to penicillin. But here was a bug killing a British soldier back in that already had resistance to that anti-bacterial substance, penicillium. Horizontal gene transfer is essentially sideways heredity.

It can even go from one kingdom of life into another, sideways, across great barriers. That was thought to be undoable. In fact, genes can go sideways across vast species boundaries.

For instance, a gene for resistance to one kind of antibiotic in one form of bacteria, like staphylococcus, can move sideways into another, completely different form of bacteria, say, E. This can happen not just in bacteria but also in animals, plants, and higher organisms, generally as a result of infection or parasitism.

One example is a form of transposon. Big, complicated word. But scientists have discovered that these things can also jump from one creature to another, and even from one species to another. One transposon has been given the name space invaders. It seems able to pass, for instance, from a reptile into an insect or from a possum into a rat, by way of something called a kissing bug, an insect that, when sucking blood, sucks in some of this transposon.

The transposon then moves from one species to another and becomes part of the heritable genome of that new species. There are two phases in classic Darwinian evolution. Secondly, it envisions two organizing criteria: things progress from simple to perfect and from primitive to modern. And thirdly, it supposes there are no intermediary stages between levels in this hierarchy. Each level is a watertight compartment of similar complexity — a barnacle and a coral reef on the same rung are equally complex.

No one is halfway between two steps. In the s a variation of the scala naturae conceived by Jesuit philosopher Pierre Teilhard de Chardin became popular. His idea was that, although life is somewhat branched, there is direction in evolution , a progression toward greater cognitive complexity and, ultimately, to identification with the divine, that is, God.

All life on Earth is the product of gradual transformations, which diversified and gave rise to the exuberance of organisms that we know today.