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The top 10 myths of psychology | Ben Ambridge | TEDxYouth@Manchester

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    So you've heard of your IQ,
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    your general intelligence,
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    but what's your Psy-Q?
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    How much do you know
    about what makes you tick,
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    and how good are you
    at predicting other peoples' behavior
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    or even your own?
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    And how much about what you think
    you know about psychology is wrong?
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    So let's find out by counting down
    the top 10 myths of psychology.
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    So you've probably heard it said
    that when it comes to their psychology,
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    man and women are very different.
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    It's almost as if men are from Mars
    and women are from Venus.
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    But how different
    are men and women really?
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    So to find out, let's start by looking
    at something on which men and women
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    really do differ
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    and plotting some psychological
    gender differences on the same scale.
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    So one thing that men and women
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    do really differ on is how far
    they can throw a ball.
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    So if we look at the data for men here,
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    we see what is called
    a normal distribution curve.
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    A few men can throw a ball really far,
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    and a few men not far at all,
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    but most a kind of average distance.
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    And women share
    the same distribution as well,
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    but actually there's
    quite a big difference.
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    In fact, the average man
    can throw a ball further
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    than about 98 percent of all women.
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    So now let's look at what
    some psychological gender differences
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    look like on the same standardized scale.
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    So any psychologist will tell you
    that men are better
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    at spacial awareness than women,
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    so things like map-reading, for example,
    and it's true,
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    but let's have a look
    at the size of this difference.
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    It's tiny: the lines are so close together
    that they almost overlap.
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    In fact, the average woman is better
    than 33 percent of all men,
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    and of course, if that was 50 percent,
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    then the two genders
    would be exactly equal.
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    It's worth bearing in mind that this and
    the next difference I'm going to show you
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    are pretty much the biggest
    psychological gender differences
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    ever discovered in psychology.
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    Here's the next one.
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    Any psychologist will tell you
    that women are better
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    with language and grammar than men.
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    So here's performance
    on the standardized grammar test.
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    There go the women. There go to the men.
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    Again, yes, women are better on average,
    but the lines are so close
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    that 33 percent of men
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    are better than the average woman,
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    and again, if it was 50 percent,
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    that would represent
    complete gender equality.
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    So it's not really
    a case of Mars and Venus.
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    It's more a case of, if anything,
    Mars and Snickers:
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    basically the same, but, you know,
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    one's maybe slightly
    nuttier than the other.
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    I won't say which.
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    Right. Now we've got you warmed up.
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    Let's psychoanalyze you using
    the famous Rorschach inkblot test.
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    So you can probably see, I don't know,
    two bears or two people or something.
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    But what do you think they're doing?
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    Put your hand up if you think
    they're saying hello.
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    Not many people. Okay.
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    Put your hands up if you think
    they are high-fiving.
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    Okay. What if you think they're fighting?
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    Only a few people there.
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    Okay, so if you think they're
    saying hello or high-fiving,
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    then that means you're a friendly person.
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    If you think they're fighting,
    that means you're a bit more
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    of a nasty, aggressive person.
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    Are you a lover or a fighter, basically.
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    What about this one?
    This isn't really a voting one,
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    so on three, everyone
    shout out what you see.
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    One, two, three.
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    (Audience shouting)
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    I heard hamster. Who said hamster?
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    That was very worrying.
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    A guy there said hamster.
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    Well, you should see
    some kind of two-legged animal here,
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    and then the mirror image of them there.
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    If you didn't, then this means
    that you have difficulty
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    processing complex situations
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    where there's a lot going on.
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    Except, of course,
    it doesn't mean that at all.
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    Rorschach inkblot tests
    have basically no validity
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    when it comes to diagnosing
    people's personality
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    and are not used
    by modern-day psychologists.
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    In fact, one recent study found
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    that when you do try
    to diagnose people's personality
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    using Rorschach inkblot tests,
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    schizophrenia was diagnosed
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    in about one sixth of apparently
    perfectly normal participants.
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    So if you didn't do that well on this,
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    maybe you are not
    a very visual type of person.
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    So let's do another
    quick quiz to find out.
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    When making a cake, do you prefer to
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    - so hands up for each one again -
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    do you prefer to use
    a recipe book with pictures?
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    Yeah, a few people.
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    Have a friend talk you through?
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    Or have a go, making it up
    as you go along?
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    Quite a few people there.
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    Okay, so if you said a,
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    then this means
    that you are a visual learner
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    and you learn best when information
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    is presented in a visual style.
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    If you said b, it means
    you're an auditory learner,
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    that you learn best when information
    is presented to you in an auditory format,
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    and if you said c,
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    it means that you're
    a kinesthetic learner,
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    that you learn best when you get stuck in
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    and do things with your hands.
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    Except, of course,
    as you've probably guessed,
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    that it doesn't, because
    the whole thing is a complete myth.
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    Learning styles are made up
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    and are not supported
    by scientific evidence.
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    So we know this because in
    tightly controlled experimental studies,
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    when learners are given material to learn
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    either in their preferred style
    or an opposite style,
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    it makes no difference at all
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    to the amount of information
    that they retain.
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    And if you think about it
    for just a second,
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    it's just obvious
    that this has to be true.
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    It's obvious that
    the best presentation format
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    depends not on you,
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    but on what you're trying to learn.
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    Could you learn to drive a car,
    for example,
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    just by listening to someone
    telling you what to do
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    with no kinesthetic experience?
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    Could you solve simultaneous equations
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    by talking them through in your head
    and without writing them down?
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    Could you revise
    for your architecture exams
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    using interpretive dance
    if you're a kinesthetic learner?
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    No. What you need to do is match
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    the material to be learned
    to the presentation format,
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    not you.
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    So, I know many of you
    are A-level students
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    that will have recently gotten
    your GCSE results.
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    And if you didn't quite get
    what you were hoping for,
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    then you can't really blame
    your learning style,
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    but one thing that you might want
    to think about blaming is your genes.
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    So what this is all about
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    is a recent study
    at University College London
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    found that 58 percent of the variation
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    between different students
    and their GCSE results
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    was down to genetic factors.
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    So that sounds a very precise figure,
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    so how can we tell?
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    Well, when we want to unpack
    the relative contributions
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    of genes and the environment,
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    what we can do is do a twin study.
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    So identical twins share 100 percent
    of their environment
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    and 100 percent of their genes,
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    whereas non-identical twins
    share 100 percent of their environment,
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    but just like any brother and sister,
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    share only 50 percent of their genes.
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    So by comparing how similar GCSE
    results are in identical twins
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    versus non-identical twins,
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    and doing some clever math,
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    we can an idea of how much variation
    and performance is due to the environment
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    and how much is due to genes.
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    And it turns out that it's about
    58 percent due to genes.
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    So this isn't to undermine the hard work
    that you and your teachers here put in.
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    If you didn't quite get the GCSE results
    that you were hoping for,
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    then you can always try blaming
    your parents, or at least their genes.
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    One thing that you shouldn't blame
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    is being a left brained
    or right brained learner,
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    because again, this is a myth.
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    So the myth here
    is that the left brain is logical,
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    it's good with equations like this,
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    and the right brain is more creative,
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    so the right brain is better at music.
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    But again, this is a myth
    because nearly everything that you do
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    involves nearly all parts
    of your brain talking together,
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    even just the most mundane thing
    like having a normal conversation.
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    However, perhaps one reason
    why this myth has survived
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    is that there is
    a slight grain of truth to it.
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    So a related version of the myth
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    is that left-handed people are more
    creative than right-handed people,
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    which kind of makes sense because
    your brain controls the opposite hands,
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    so left-handed people,
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    the right side of the brain
    is slightly more active
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    than the left hand side of the brain,
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    and the idea is the right-hand side
    is more creative.
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    Now, it isn't true per se
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    that left-handed people are more creative
    than right-handed people.
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    What is true that ambidextrous people,
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    or people who use both hands
    for different tasks,
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    are more creative thinkers
    than one-handed people,
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    because being ambidextrous involves
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    having both sides of the brain
    talk to each other a lot,
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    which seems to be involved
    in creative and flexible thinking.
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    The myth of the creative left-hander
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    arises from the fact
    that being ambidextrous
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    is more common amongst left-handers
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    than right handers,
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    so a grain of truth in the idea
    of the creative left-hander,
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    but not much.
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    A related myth that you've
    probably heard of
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    is that we only use
    10 percent of our brains.
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    This is, again, a complete myth.
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    Nearly everything that we do,
    even the most mundane thing,
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    uses nearly all of our brains.
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    That said, it is of course true
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    that most of us don't use our brainpower
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    quite as well as we could
    most of the time.
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    So what could we do
    to boost our brain power?
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    Maybe we could listen
    to a nice bit of Mozart.
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    So have you heard of the idea
    of the Mozart effect?
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    So the idea is that listening to Mozart
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    makes you smarter and improves
    your performance on IQ tests.
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    Now again, what's interesting
    about this myth
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    is that although it's basically a myth,
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    there is a grain of truth to it.
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    So the original study found
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    that participants who were played
    Mozart music for a few minutes
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    did better on a subsequent IQ test
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    than participants who simply
    sat in silence.
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    But a follow-up study recruited
    some people who liked Mozart music
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    and then another group of people
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    who were fans of the horror stories
    of Stephen King.
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    And they played the people
    the music or the stories.
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    The people who preferred
    Mozart music to the stories
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    got a bigger IQ boost
    from the Mozart than the stories,
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    but the people who preferred
    the stories to the Mozart music
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    got a bigger IQ boost
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    from listening to the Stephen King stories
    than the Mozart music.
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    So the truth is that listening
    to something that you enjoy
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    perks you up a bit
    and gives you a temporary IQ boost
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    on a narrow range of tasks.
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    There's no suggestion
    that listening to Mozart
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    or indeed Stephen King stories
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    is going to make you any smarter
    in the long run.
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    So another version of the Mozart myth
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    is that listening to Mozart can make you
    not only cleverer but healthier, too.
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    Unfortunately, this doesn't seem
    to be true
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    of someone who listened
    to the music of Mozart almost every day,
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    Mozart himself,
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    who suffered from gonorrhea,
    smallpox, arthritis,
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    and what most people think
    eventually killed him in the end,
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    syphilis.
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    This suggests that Mozart
    should have bit more careful, perhaps,
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    when choosing his sexual partners.
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    But how do we choose a partner?
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    So a myth, but I have to say
    is sometimes spread a bit by sociologists
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    is that our preferences
    in a romantic partner
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    are a product of our culture,
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    that they're very culturally specific,
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    but in fact, the data don't back this up.
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    So a famous study surveyed people from
    [37] different cultures across the globe,
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    from Americans to Zulus,
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    on what they look for in a partner.
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    And in every single culture
    across the globe,
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    men placed more value
    on physical attractiveness in a partner
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    than did women,
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    and in every single culture, too,
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    women placed more importance than did men
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    on ambition and high earning power.
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    In every culture, too,
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    men preferred women
    who were younger than themselves,
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    an average of I think it was 2.66 years,
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    and in every culture, too,
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    women preferred men
    who were older than them,
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    so an average of 3.42 years,
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    which is why we've got here
    "Everybody Needs A Sugar Daddy."
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    So moving on from trying
    to score with a partner
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    to trying to score in basketball
    or football or whatever your sport is.
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    So the myth here is that sportsmen
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    go through hot hand streaks,
    Americans call them,
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    or purple patches,
    we sometimes say in England,
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    where they just can't miss,
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    like this guy here.
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    But in fact, what happens is
    that if you analyze the pattern
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    of hits and misses statistically,
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    it turns out that it's
    nearly always at random.
  • 11:08 - 11:10
    Your brain creates patterns
    from the randomness.
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    So if you toss a coin, you know,
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    a streak of heads or tails is going to
    come out somewhere in randomness,
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    and becomes the brain likes
    to see patterns where there are none,
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    we look at these streaks
    and attribute meaning to them
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    and say, "Yeah he's really on form today,"
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    whereas actually you would
    get the same pattern
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    if you were just getting
    hits and misses at random.
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    So an exception to this, however,
    is penalty shootouts.
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    A recent study looking
    at penalty shootouts in football
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    shows that players who represent countries
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    with a very bad record
    in penalty shootouts,
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    like, for example, England,
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    tend to be quicker to take their shots
    than countries with a better record,
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    and presumably as a result,
    they're more likely to miss.
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    Which raises the question
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    of if there's any way that we could
    improve people's performance,
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    and one thing you might think about doing
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    is punishing people for their misses
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    and seeing if that improves things.
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    This idea, the effect that punishment
    can improve performance,
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    is what participants
    thought they were testing
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    in Milgram's famous learning
    and punishment experiment
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    that you've probably heard about
    if you're a psychology student.
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    The story goes that participants
    were prepared to give
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    what they believed to be fatal
    electric shocks to a fellow participant
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    when they got a question wrong,
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    just because someone
    in a white coat told them too.
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    But this story is a myth
    for three reasons.
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    Firstly and most crucially,
    the lab coat wasn't white.
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    It was, in fact, grey.
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    Secondly, the participants
    were told before the study
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    and reminded any time
    they raised a concern,
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    that although the shocks were painful,
    they were not fatal
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    and indeed caused
    no permanent damage whatsoever.
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    And thirdly, participants
    didn't give the shocks
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    just because someone
    in the coat told them to.
  • 12:50 - 12:52
    When they were interviewed
    after the study,
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    all the participants said
    that they firmly believed
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    that the learning and punishment study
    served a worthy scientific purpose
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    which would have
    enduring gains for science
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    as opposed to the momentary
    non-fatal discomfort
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    caused to the participants.
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    Okay, so I've been talking
    for about 12 minutes now,
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    and you've probably been sitting there
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    listening to me, analyzing
    my speech patterns and body language
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    and trying to work out if you should
    take any notice of what I'm saying,
  • 13:19 - 13:22
    whether I'm telling the truth
    or whether I'm lying,
  • 13:22 - 13:24
    but if so you've
    probably completely failed,
  • 13:24 - 13:26
    because although we all think
    we can catch a liar
  • 13:26 - 13:28
    from their body language
    and speech patterns,
  • 13:28 - 13:31
    hundreds of psychological tests
    over the years have shown
  • 13:31 - 13:34
    that all of us, including
    police officers and detectives,
  • 13:34 - 13:37
    are basically at chance when it comes
    to detecting lies from body language
  • 13:37 - 13:39
    and verbal patterns.
  • 13:39 - 13:41
    Interestingly, there is one exception:
  • 13:41 - 13:43
    TV appeals for missing relatives.
  • 13:43 - 13:47
    It's quite easy to predict
    when the relatives are missing
  • 13:47 - 13:51
    and when the appealers have in fact
    murdered the relatives themselves.
  • 13:53 - 13:57
    So hoax appealers are more likely
    to shake their heads, to look away,
  • 13:57 - 13:59
    and to make errors in their speech,
  • 13:59 - 14:01
    whereas genuine appealers are more likely
  • 14:01 - 14:03
    to express hope that the person
    will return safely
  • 14:03 - 14:04
    and to avoid brutal language.
  • 14:04 - 14:09
    So, for example, they might say
    "taken from us" rather than "killed."
  • 14:09 - 14:11
    Speaking of which,
  • 14:11 - 14:12
    it's about time I killed this talk,
  • 14:12 - 14:14
    but before I do, I just want to give you
  • 14:14 - 14:15
    in 30 seconds
  • 14:15 - 14:18
    the overarching myth of psychology.
  • 14:18 - 14:21
    So the myth of psychology, as I see,
  • 14:21 - 14:25
    and one that I don't think textbooks
    about psychology
  • 14:25 - 14:28
    and even university courses
    do enough to dispel,
  • 14:28 - 14:29
    the myth is that psychology
  • 14:29 - 14:31
    is just a collection
    of interesting theories,
  • 14:31 - 14:33
    all of which say something useful
  • 14:33 - 14:35
    and all of which have something to offer.
  • 14:35 - 14:38
    What I hope to have shown you
    in the past few minutes
  • 14:38 - 14:39
    is that this isn't true.
  • 14:39 - 14:42
    What we need to do is assess
    psychological theories
  • 14:42 - 14:44
    by seeing what predictions they make,
  • 14:44 - 14:47
    whether that is that listening to Mozart
    makes you smarter,
  • 14:47 - 14:49
    that you learn better when information
  • 14:49 - 14:51
    is presented in your
    preferred learning style,
  • 14:51 - 14:55
    or whatever it is, all of these
    are testable empirical predictions,
  • 14:55 - 14:57
    and the only way we can make progress
  • 14:57 - 14:59
    is to test these predictions
    against the data
  • 14:59 - 15:01
    in tightly controlled
    experimental studies,
  • 15:01 - 15:04
    and it's only by doing so
    that we can hope to discover
  • 15:04 - 15:07
    which of these theoriesare well-supported,
  • 15:07 - 15:10
    and which, like all the ones
    I've told you about today, are myths.
  • 15:10 - 15:11
    Thank you.
  • 15:11 - 15:13
    (Applause)
Title:
The top 10 myths of psychology | Ben Ambridge | TEDxYouth@Manchester
Description:

This talk was given at a local TEDx event, produced independently of the TED Conferences.
How much of what you think about your brain is actually wrong? In this whistlestop tour of dis-proved science, Ben Ambridge walks through 10 popular ideas about psychology that have been proven wrong — and uncovers a few surprising truths about how our brains really work.

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Video Language:
English
Team:
closed TED
Project:
TEDxTalks
Duration:
15:23

English subtitles

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