Showing posts with label genius. Show all posts
Showing posts with label genius. Show all posts

Wednesday, 28 April 2021

Is fast learning a primary need today?

 Everything around us is changing at unbelievable speed, and us, by us I mean the ones that are not kids anymore, we need to adapt to it. These past lockdowns made us vulnerable in terms of communication, and now we learned about Zoom, Microsoft Teams and other few video-conference apps. But it is not only that. Learning is a life-long process, and we should never stop doing it. 

But, as we do it, we may want to know that there are ways to do it faster, better, with optimal results. I was talking with someone yesterday, and I got all excited talking about learning, genetics, intelligence, genius and other related stuff. And I realized that, once more, after long long time, I was feeling different. I was feeling again that vibration, that uplifting sensation of happiness that one has when one is close to his life mission. Life mission, native skill, achieved potential, call it in whatever way you want. You know the story, that one saying that each of us is destined to greatness, that each of us can achieve virtuosity on one unique skill or domain, where our talent is immensurable.  

Some people discover their innate ability earlier in life, they are called prodigies, some later in life, and some never. Now that last one is a sad story. Wouldn't you want to know that there is something there, God's know what forsake ability, and you can be the greatest of your generation, if you will discover it. Let's not forget: 

“Everyone is a genius. But if you judge a fish by its ability to climb a tree, it will live its whole life believing that it is stupid.” (Einstein)


Just think about Jamaica Bobsled team or how somebody living close to Sahara desert can have a great swimming potential. Still this story is not about genetics. They are not that important. What, you may say? Yes, they are playing a role in learning, but, unless you are on some extreme side of the spectrum, this does not matter. 

Ok, I will need to explain few terms, so you will not be confused. There are different steps in learning a skill, and I call it skill loosely, as it can be a micro-skill (jumping higher) or a entire domain (chemistry or music). I quantify them in this order:

  • Beginner - you know what you want to learn, but you have no experience (zero hours mark).
  • Average - you spend some time learning about, until you are efficient enough to do it the right way (100 hours mark).
  • Expert - you are doing that better than other people, you can even choose it as a profession and get paid for it, you have a marketable skill (1000 hours mark)
  • Master - in order to achieve mastery, as an ordinary person, the experts like Ericsson and Gladwell said that we will need on average 10.000 hours (read the following two books to find more, 'Peak' by Anders Ericsson and 'Outliers' by Malcolm Gladwell).
  • Virtuosity - yes, there is one more step above mastery, and it is called virtuosity, if mastery means that you are in the top 1% in the world, then this level means that you are one of the best, if not the best of all. To achieve virtuosity one needs decades, if not an entire life of dedication. 
So, genetics and innate talent, this may shorten the hours needed for mastery, from 10.000 to 5-7.000, depending on who is measuring or researching. Then, there is also the environment, and how early you are exposed to other people who already mastered your innate talent skill. Think about, if you have two parents that are both musicians or actors, you will know much more about it than if your parents are farmers. There are exceptions, of course, but upbringing matters quite a lot. If you have kids and you notice they are talented at something, make an effort and make them meet the best teacher in that direction, even if it is for a short period of time. Who would you prefer to teach you about training in a gym, Arnold Schwarzenegger for a day, or a young PE graduate who finished university 5 month ago for a year? Choices, choices! Basically learning to the expert level will made you to know 80% of something, but then you reach a plateau, and you cannot go forward for some reason. There are two ways through, one is that you dedicate enough time, and you learn the fine tuning by yourself (10.000 hours), or you find somebody who already achieved mastery and he/she will point out what you need to learn, shorting the learning time dramatically. Try this book also

But I derailed a bit with the story. Let me tell you about my journey. I was lucky enough to discover my skill earlier in life, and more than that, to train and improved over decades, using my own experience and other ones also. My only ability that matter is that I learn fast. Very fast. Not to boast, but I can learn in days what others can do in months, and reach expert level in few months. Languages, professions, all kind of skills. I can do them very quick once i study with what I call focused intent. Now this is one important bit, making all the difference between normal learning and faster learning. It has two parts, focus and intention. You know that moment when you studied a language in school for 5-10 years, and you still cannot speak it fluently. That is because you missed one of those two, either you did not focused enough in school, or you never had the intention to learn it. But what about back then when you need it to learn about and compare car performances, in order to decide which car to buy, as a teenager, combing through many car brands specifications database, and engine specs, mpg consumption, acceleration where soon all settled in your memory. What made the difference? You wanted to know, you had the intention, the motivation, and you read and compared them carefully. So you had the focus also. Can you see it now? There is a very easy way to explore this mysterious intention, as Tibetan monks teached us, and it is called being in the present. Right here, right now, set up your alarm and for the next 2 minutes be in the present, being aware of all the noises, feeling, smells and tastes around you. No thought about what happened in the past, no plans about future. Just be here, now. You see how hard it is. Learning with focused intent requires a similar skill. No distractions, no procrastinations, no delays. Carlos Castaneda wrote entire books related to the process of intention, exploring the way of life of the Yaqui Indians.  

I learned how to read and read quite early, around age 4-5. Then, when I was 6, I found the Holy Grail, a book about fast reading techniques. Over the next few 10-15 years I kept doing the exercises and now, reaching some age, they become part of my reading, automatically. I am reading some 600 page books in one night at work (Hope my bosses do not read this, just kidding, I am reading the book and doing my job, right?). If you made an educated guess, learning how to read faster will save you a lot of time if you want to achieve speed learning. This is the first step. Find a good class or book about it and do the effort. If you need speed, you do not need Kabal (Mortal Kombat 2 reference for our young audience). You need to read faster to learn faster. This is a necessity. 

But reading faster is not everything. We are humans and we tend to forget. So memory is as important as any other part. You can try to check this book ( Never Forget, by yours truly), in order to save me to explain everything in detail. Or you can just watch this Jim Kwik video as teaser:


Yes, you can learn to do what he is doing, and even more. If you do not have time even to watch the video, I am giving you a short resume of what I call 'Back to Basics' technique, a set of rules meant to keep your brain healthy for longer. I t is something that all of us know, but few are actively doing it. Let's start!

  • 8-9 hours of sleep
  • Proper hydration - 1.5-2 liters of water (dehydration is reducing your brain effectiveness by 5-10%)
  • Avoid alcohol and drugs
  • Exercise regularly (physical -at least 3 times per week, mental - at least 10-15 minutes daily)
  • Use proper nootropics (not sub-optimal ones like energy drinks) (You can read more about nootropics using these series of articles - posted the first one, just scroll for the rest)
  • Eat good quality food, more than 75% vegetable and fruits, more than 75% alkaline, avoid to eat fast food, sugar, salt and fat in excess. Unless you are doing a keto-diet. Than it is different.  

Also, the more you learn, the better it is. I do not expect everyone to be as obsessed as I am, but acquiring knowledge from different branches will make your life easier. What can I say, even now, I am working with people from both ends of the spectrum, some with autism and learning disabilities, some being called geniuses, multipotentialites, multipods, or if you prefer the Renaissance term, 'l'uomo universale', the polymath. Of course, I may be a bit too restless, with 4 specifically themed personal blogs (Economics and personal finance, poetry, intelligence study, health), 3 active blogs on Publish0x (Life extension, Cryptocurrency and Creative writing), a Medium one and some non-themed ones (5-6 active ones on Hive Blog such as Leofinance, Splintertalks, ProofofBrain, Stem, then it is Read.cash and few other I will not mention today. I like games like Splinterlands and League of Legends. Combine this with 2 real jobs, writing books and dealing with crypto, and you have the definition of what real chaos is. Not to mention that right now I am planning my own wedding for this autumn.

Wow, time goes faster when you are talking about your passion. I will stop here for now, and maybe I will try to talk about peak and flow some other time. 

Tuesday, 29 October 2019

About imposter syndrome and self defeating

This depends on how good you are at recognise this condition, how well equipped are to help others and how intelligent the other person is.

Somebody said that you do not need to learn how to love, you just take out of your way everything that is stopping you to do it.

In a way, it is the same with intelligent, bright people self limiting themselves by an imposter syndrome. All the potential for a happy fulfilled life is there. You just need to recognise the problem, to become aware of the condition and just leave it behind.

This is not easy. Sometimes can be a lifetime struggle to conquer the imposter syndrome. But it is totally worth it. Once you did it, you are like a legendary Phoenix, ready to fly and reach your full potential. You were stagnant only because you chose to be. And the self sabotage for an intelligent person is so subtle that you cannot even see it. And very original also.

So, once you get over it, you start to see it around, to recognise it. All this self defeating attitude, all this limiting behaviour. And you know that others can thrive, can achieve greatness. But you are not able to change them.

That is unbearable.

To be able to change yourself but not to help others that are going through the same thing. But you are bright. You can learn. And one day you can become good enough in order to do it.

Short story, this is the reason behind why every genius chose to help others like them.

Monday, 23 April 2018

Genius - Baby steps (Do our first three years of life determine how we’ll turn out?)

Baby Steps
by Malcolm Gladwell


Do our first three years of life determine how we’ll turn out?

1.

In April of 1997, Hillary Clinton was the host of a daylong conference at the White House entitled “What New Research on the Brain tells Us About Our Youngest Children.” In her opening remarks, which were beamed live by satellite to nearly a hundred hospitals, universities, and schools, in thirty-seven states, Mrs. Clinton said, “Fifteen years ago, we thought that a baby’s brain structure was virtually complete at birth.” She went on:

Now we understand that it is a work in progress, and that everything we do with a child has some kind of potential physical influence on that rapidly forming brain. A child’s earliest experiences–their relationships with parents and caregivers, the sights and sounds and smells and feelings they encounter, the challenges they meet–determine how their brains are wired. . . . These experiences can determine whether children will grow up to be peaceful or violent citizens, focussed or undisciplined workers, attentive or detached parents themselves.

At the afternoon session of the conference, the keynote speech was given by the director turned children’s advocate Rob Reiner. His goal, Reiner told the assembled, was to get the public to “look through the prism” of the first three years of life “in terms of problem solving at every level of society”:

If we want to have a real significant impact, not only on children’s success in school and later on in life, healthy relationships, but also an impact on reduction in crime, teen pregnancy, drug abuse, child abuse, welfare, homelessness, and a variety of other social ills, we are going to have to address the first three years of life. There is no getting around it. All roads lead to Rome.

The message of the conference was at once hopeful and a little alarming.On the one hand, it suggested that the right kind of parenting during those first three years could have a lasting effect on a child’s life; on the other hand, it implied that if we missed this opportunity the resulting damage might well be permanent. Today, there is a zero-to-three movement, made up of advocacy groups and policymakers like Hillary Clinton, which uses the promise and the threat of this new brain science to push for better pediatric care, early childhood education, and day care. Reiner has started something called the I Am Your Child Foundation, devoted to this cause, and has enlisted the support of, among others, Tom Hanks, Robin Williams, Billy Crystal, Charlton Heston, and Rosie O’Donnell. Some lawmakers now wonder whether programs like Head Start ought to be drastically retooled, to focus on babies and toddlers rather than on preschoolers. The state of California recently approved a fifty-cent-per-pack tax on cigarettes to fund programs aimed at improving care for babies and toddlers up to the age of five. The state governments of Georgia and Tennessee send classical-music CDs home from the hospital with every baby, and Florida requires that day-care centers play classical music every day–all in the belief that Mozart will help babies build their minds in this critical window of development. “During the first part of the twentieth century, science built a strong foundation for the physical health of our children,” Mrs. Clinton said in her speech that morning. “The last years of this century are yielding similar breakthroughs for the brain. We are . . . coming closer to the day when we should be able to insure the well-being of children in every domain–physical, social, intellectual, and emotional.”

The First Lady took pains not to make the day’s message sound too extreme. “I hope that this does not create the impression that, once a child’s third birthday rolls around, the important work is over,”she said, adding that much of the brain’s emotional wiring isn’t completed until adolescence, and that children never stop needing the love and care of their parents. Still, there was something odd about the proceedings. This was supposed to be a meeting devoted to new findings in brain science, but hardly any of the brain science that was discussed was new. In fact, only a modest amount of brain science was discussed at all. Many of the speakers were from the worlds of education and policy. Then, there was Mrs. Clinton’s claim that the experiences of our first few years could “determine” whether we grow up to be peaceful or violent, focussed or undisciplined. We tend to think that the environmental influences upon the way we turn out are the sum of a lifetime of experiences–that someone is disciplined because he spent four years in the Marines, or because he got up every morning as a teen-ager to train with the swim team. But Hillary Clinton was proposing that we direct our attention instead to what happens to children in a very brief window early in life. The First Lady, now a candidate for the United States Senate, is associating herself with a curious theory of human development. Where did this idea come from? And is it true?

2.

John Bruer tackles both these questions in his new book, “The Myth of The First Three Years” (Free Press; $25). From its title, Bruer’s work sounds like a rant. It isn’t. Noting the cultural clout of the zero-to- three idea, Bruer, who heads a medical-research foundation in St. Louis, sets out to compare what people like Rob Reiner and Hillary Clinton are saying to what neuroscientists have actually concluded. The result is a superb book, clear and engaging, that serves as both popular science and intellectual history.

Mrs. Clinton and her allies, Bruer writes, are correct in their premise: the brain at birth is a work in progress. Relatively few connections among its billions of cells have yet been established. In the first few years of life, the brain begins to wire itself up at a furious pace, forming hundreds of thousands, even millions, of new synapses every second. Infants produce so many new neural connections, so quickly, that the brain of a two-year-old is actually far more dense with neural connections than the brain of an adult. After three, that burst of activity seems to slow down, and our brain begins the long task of rationalizing its communications network, finding those connections which seem to be the most important and getting rid of the rest.

During this brief initial period of synaptical “exuberance,” the brain is especially sensitive to its environment. David Hubel and Torsten Wiesel, in a famous experiment, sewed one of the eyes of a kitten shut for the first three months of its life, and when they opened it back up they found that the animal was permanently blind in that eye. There are critical periods early in life, then, when the brain will not develop properly unless it receives a certain amount of outside stimulation. In another series of experiments, begun in the early seventies, William Greenough, a psychologist at the University of Illinois, showed that a rat reared in a large, toy-filled cage with other rats ended up with a substantially more developed visual cortex than a rat that spent its first month alone in a small, barren cage: the brain, to use the word favored by neuroscientists, is plastic–that is, modifiable by experience. In other words, Hillary Clinton’s violent citizens and unfocussed workers might seem to be the human equivalents of kittens who’ve had an eye sewed shut, or rats who’ve been reared in a barren cage. If in the critical first three years of synapse formation we could give people the equivalent of a big cage full of toys, she was saying, we could make them healthier and smarter.

Put this way, these ideas sound quite reasonable, and it’s easy to see why they have attracted such excitement. But Bruer’s contribution is to show how, on several critical points, this account of child development exaggerates or misinterprets the available evidence.

Consider, he says, the matter of synapse formation. The zero-to- three activists are convinced that the number of synapses we form in our earliest years plays a big role in determining our mental capacity. But do we know that to be true? People with a form of mental retardation known as fragile-X syndrome, Bruer notes, have higher numbers of synapses in their brain than the rest of us. More important, the period in which humans gain real intellectual maturity is late adolescence, by which time the brain is aggressively pruning the number of connections. Is intelligence associated with how many synapses you have or with how efficiently you manage to sort out and make sense of those connections later in life? Nor do we know how dependent the initial burst of synapse formation is on environmental stimulation. Bruer writes of an experiment where the right hand of a monkey was restrained in a leather mitten from birth to four months, effectively limiting all sensory stimulation. That’s the same period when young monkeys form enormous numbers of connections in the somatosensory cortex, the area of the monkey brain responsible for size and texture discriminations, so you’d think that the restrained hand would be impaired. But it wasn’t: within a short time, it was functioning normally, which suggests that there is a lot more flexibility and resilience in some aspects of brain development than we might have imagined.

Bruer also takes up the question of early childhood as a developmental window. It makes sense that if children don’t hear language by the age of eleven or twelve they aren’t going to speak, and that children who are seriously neglected throughout their upbringing will suffer permanent emotional injury. But why, Bruer asks, did advocates arrive at three years of age as a cutoff point? Different parts of the brain develop at different speeds. The rate of synapse formation in our visual cortex peaks at around three or four months. The synapses in our prefrontal cortex–the parts of our brain involved in the most sophisticated cognitive tasks–peak perhaps as late as three years, and aren’t pruned back until middle-to-late adolescence. How can the same cutoff apply to both regions?

Greenough’s rat experiments are used to support the critical- window idea, because he showed that he could affect brain development in those early years by altering the environment of his animals. The implications of the experiment aren’t so straightforward, though. The experiments began when the rats were about three weeks old, which is already past rat “infancy,” and continued until they were fifty-five days old, which put them past puberty. So the experiment showed the neurological consequences of deprivation not during some critical window of infancy but during the creature’s entire period of maturation. In fact, when Greenough repeated his experiment with rats that were four hundred and fifty days old–well past middle age–he found that those kept in complex environments once again had significantly denser neural connections than those kept in isolation.

Even the meaning of the kitten with its eye sewn shut turns out to be far from obvious. When that work was repeated on monkeys, researchers found that if they deprived both eyes of early stimulation–rearing a monkey in darkness for its first six months–the animal could see (although not perfectly), and the binocularity of its vision, the ability of its left and right eyes to coördinate images, was normal. The experiment doesn’t show that more stimulation is better than less for binocular vision. It just suggests that whatever stimulation there is should be balanced, which is why closing one eye tilts the developmental process in favor of the open eye.

To say that the brain is plastic, then, is not to say that the brain is dependent on certain narrow windows of stimulation. Neuroscientists say instead that infant brains have “experience-expectant plasticity”–which means that they need only something that approximates a normal environment. Bruer writes:

The odds that our children will end up with appropriately fine-tuned brains are incredibly favorable, because the stimuli the brain expects during critical periods are the kinds of stimuli that occur everywhere and all the time within the normal developmental environment for our species. It is only when there are severe genetic or environmental aberrations from the normal that nature’s expectations are frustrated and neural development goes awry.

In the case of monkeys, the only way to destroy their binocular vision is to sew one eye shut for six months–an entirely contrived act that would almost never happen in the wild. Greenough points out that the “complex” environment he created for his rats–a large cage full of toys and other animals–is actually the closest equivalent of the environment that a rat would encounter naturally. When he created a super-enriched environment for his rats, one with even more stimulation than they would normally encounter, the rats weren’t any better off. The only way he could affect the neurological development of the animals was to put them in a barren cage by themselves–again, a situation that an animal would never encounter in the wild. Bruer quotes Steve Petersen, a neuroscientist at Washington University, in St. Louis, as saying that neurological development so badly wants to happen that his only advice to parents would be “Don’t raise your children in a closet, starve them, or hit them in the head with a frying pan.” Petersen was, of course, being flip. But the general conclusion of researchers seems to be that we human beings enjoy a fairly significant margin of error in our first few years of life. Studies done of Romanian orphans who spent their first year under conditions of severe deprivation suggest that most (but not all) can recover if adopted into a nurturing home. In another study, psychologists examined children from an overcrowded orphanage who had been badly neglected as infants and subsequently adopted into loving homes. Within two years of their adoption, one psychologist involved in their rehabilitation had concluded:

We had not anticipated the older children who had suffered deprivations for periods of 21/2 to 4 years to show swift response to treatment. That they did so amazed us. These inarticulate, underdeveloped youngsters who had formed no relationships in their lives, who were aimless and without a capacity to concentrate on anything, had resembled a pack of animals more than a group of human beings….As we worked with the children, it became apparent that their inadequacy was not the result of damage but, rather, was due to a dearth of normal experiences without which development of human qualities is impossible. After a year of treatment, many of these older children were showing a trusting dependency toward the staff of volunteers and…self-reliance in play and routines.

3.

Some years ago, the Berkeley psychology professor Alison Gopnik and one of her students, Betty Repacholi, conducted an experiment with a series of fourteen-month-old toddlers. Repacholi showed the babies two bowls of food, one filled with Goldfish crackers and one filled with raw broccoli. All the babies, naturally, preferred the crackers. Repacholi then tasted the two foods, saying “Yuck” and making a disgusted face at one and saying “Yum” and making a delighted face at the other. Then she pushed both bowls toward the babies, stretched out her hand, and said, “Could you give me some?”

When she liked the crackers, the babies gave her crackers. No surprise there. But when Repacholi liked the broccoli and hated the crackers, the babies were presented with a difficult philosophical issue–that different people may have different, even conflicting, desires. The fourteen-month-olds couldn’t grasp that. They thought that if they liked crackers everyone liked crackers, and so they gave Repacholi the crackers, despite her expressed preferences. Four months later, the babies had, by and large, figured this principle out, and when Repacholi made a face at the crackers they knew enough to give her the broccoli. “The Scientist in the Crib”(Morrow; $24), a fascinating new book that Gopnik has written with Patricia Kuhl and Andrew Meltzoff, both at the University of Washington, argues that the discovery of this principle–that different people have different desires–is the source of the so-called terrible twos. “What makes the terrible twos so terrible is not that the babies do things you don’t want them to do–one-year-olds are plenty good at that–but that they do things because you don’t want them to,” the authors write. And why is that? Not, as is commonly thought, because toddlers want to test parental authority, or because they’re just contrary. Instead, the book argues, the terrible twos represent a rational and engaged exploration of what is to two-year-olds a brand-new idea–a generalization of the insight that the fact that they hate broccoli and like crackers doesn’t mean that everyone hates broccoli and likes crackers. “Toddlers are systematically testing the dimensions on which their desires and the desires of others may be in conflict,” the authors write. Infancy is an experimental research program, in which “the child is the budding psychologist; we parents are the laboratory rats.”

These ideas about child development are, when you think about it, oddly complementary to the neurological arguments of John Bruer. The paradox of the zero-to-three movement is that, for all its emphasis on how alive children’s brains are during their early years, it views babies as profoundly passive–as hostage to the quality of the experiences provided for them by their parents and caregivers. “The Scientistin the Crib” shows us something quite different. Children are scientists, who develop theories and interpret evidence from the world around them in accordance with those theories. And when evidence starts to mount suggesting that the existing theory isn’t correct–wait a minute, just because I like crackers doesn’t mean Mommy likes crackers–they create a new theory to explain the world, just as a physicist would if confronted with new evidence on the relation of energy and matter. Gopnik, Meltzoff, and Kuhl play with this idea at some length. Science, they suggest, is actually a kind of institutionalized childhood, an attempt to harness abilities that evolved to be used by babies or young children. Ultimately, the argument suggests that child development is a rational process directed and propelled by the child himself. How does the child learn about different desires? By systematically and repeatedly provoking a response from adults. In the broccoli experiment, the adult provided the fourteen-month-old with the information (“I hate Goldfish crackers”) necessary to make the right decision. But the child ignored that information until he himself had developed a theory to interpret it. When “The Scientist in the Crib” describes children as budding psychologists and adults as laboratory rats, it’s more than a clever turn of phrase. Gopnik, Meltzoff, and Kuhl observe that our influence on infants “seems to work in concert with children’s own learning abilities.” Newborns will “imitate facial expressions” but not “complex actions they don’t understand themselves.” And the authors conclude, “Children won’t take in what you tell them until it makes sense to them. Other people don’t simply shape what children do; parents aren’t the programmers. Instead, they seem designed to provide just the right sort of information.”

It isn’t until you read “The Scientist in the Crib” alongside more conventional child-development books that you begin to appreciate the full implications of its argument. Here, for example, is a passage from “What’s Going On in There? How the Brain and Mind Develop in the First Five Years of Life,” by Lise Eliot, who teaches at the University of Chicago: “It’s important to avoid the kind of muddled baby-talk that turns a sentence like ‘Is she the cutest little baby in the world?’ into ‘Uz see da cooest wiwo baby inna wowud?’ Caregivers should try to enunciate clearly when speaking to babies and young children, giving them the cleanest, simplest model of speech possible.” Gopnik, Meltzoff, and Kuhl see things a little differently. First, they point out, by six or seven months babies are already highly adept at decoding the sounds they hear around them, using the same skills we do when we talk to someone with a thick foreign accent or a bad cold. If you say “Uz see da cooest wiwo baby inna wowud?” they hear something like “Is she the cutest little baby in the world?” Perhaps more important, this sort of Motherese–with its elongated vowels and repetitions and overpronounced syllables–is just the thing for babies to develop their language skills.And Motherese, the authors point out, seems to be innate. It’s found in every culture in the world, and anyone who speaks to a baby uses it, automatically, even without realizing it. Babies want Motherese, so they manage to elicit it from the rest of us. That’s a long way from the passive baby who thrives only because of the specialized, high-end parenting skills of the caregiver. “One thing that science tells us is that nature has designed us to teach babies, as much as it has designed babies to learn,” Gopnik, Meltzoff, and Kuhl write. “Almost all of the adult actions we’ve described”–actions that are critical for the cognitive development of babies–”are swift, spontaneous, automatic and unpremeditated.”

4.

Does it matter that Mrs. Clinton and her allies have misread the evidence on child development? In one sense, it doesn’t. The First Lady does not claim to be a neuroscientist. She is a politician, and she is interested in the brains of children only to further an entirely worthy agenda: improved day care, pediatric care, and early- childhood education. Sooner or later, however, bad justifications for social policy can start to make for bad social policy, and that is the real danger of the zero-to-three movement.

In Lise Eliot’s book, for instance, there’s a short passage in which she writes of the extraordinary powers of imitation that infants possess. A fifteen-month-old who watches an experimenter lean over and touch his forehead to the top of a box will, when presented with that same box four months later, do exactly the same thing. “The fact that these memories last so long is truly remarkable–and a little bit frightening,” Eliot writes, and she continues:

It goes a long way toward explaining why children, even decades later, are so prone to replicating their parents’ behavior. If toddlers can repeat, even several months later, actions they’ve seen only once or twice, just imagine how watching their parents’ daily activities must affect them. Everything they see and hear over time–work, play, fighting, smoking, drinking, reading, hitting, laughing, words, phrases, and gestures–is stored in ways that shape their later actions, and the more they see of a particular behavior, the likelier it is to reappear in their own conduct.

There is something to this. Why we act the way we do is obviously the result of all kinds of influences and experiences, including those cues we pick up unconsciously as babies. But this doesn’t mean, as Eliot seems to think it does, that you can draw a straight line between a concrete adult behavior and what little Suzie, at six months, saw her mother do. As far as we can tell, for instance, infant imitation has nothing to do with smoking. As the behavioral geneticist David Rowe has demonstrated, the children of smokers are more likely than others to take up the habit because of genetics: they have inherited the same genes that made their parents like, and be easily addicted to, nicotine. Once you account for heredity, there is little evidence that parental smoking habits influence children; the adopted children of smokers, for instance, are no more likely to smoke than the children of non-smokers. To the extent that social imitation is a factor in smoking, the psychologist Judith Rich Harris has observed, it is imitation that occurs in adolescence between a teen-ager and his or her peers. So if you were to use Eliot’s ideas to design an anti- smoking campaign you’d direct your efforts to stop parents from smoking around their children, and miss the social roots of smoking entirely.

This point–the distance between infant experience and grownup behavior–is made even more powerfully in Jerome Kagan’s marvellous new book, “Three Seductive Ideas”(Oxford; $27.50). Kagan, a professor of psychology at Harvard, offers a devastating critique of what he calls “infant determinism,” arguing that many of the truly critical moments of socialization–the moments that social policy properly concerns itself with–occur well after the age of three. As Kagan puts it, a person’s level of “anxiety, depression, apathy and anger” is linked to his or her “symbolic constructions of experience”–how the bare facts of any experience are combined with the context of that event, attitudes toward those involved, expectations and memories of past experience. “The Palestinian youths who throw stones at Israeli soldiers believe that the Israeli government has oppressed them unjustly,” Kagan writes. He goes on:

The causes of their violent actions are not traceable to the parental treatment they received in their first few years. Similarly, no happy African-American two-year-old knows about the pockets of racism in American society or the history of oppression blacks have suffered. The realization that there is prejudice will not take form until that child is five or six years old.

Infant determinism doesn’t just encourage the wrong kind of policy. Ultimately, it undermines the basis of social policy. Why bother spending money trying to help older children or adults if the patterns of a lifetime are already, irremediably, in place? Inevitably, some people will interpret the zero-to-three dogma to mean that our obligations to the disadvantaged expire by the time they reach the age of three. Kagan writes of a famous Hawaiian study of child development, in which almost seven hundred children, from a variety of ethnic and economic backgrounds, were followed from birth to adulthood. The best predictor of who would develop serious academic or behavioral problems in adolescence, he writes, was social class: more than eighty per cent of the children who got in trouble came from the poorest segment of the sample. This is the harsh reality of child development, from which the zero-to-three movement offers a convenient escape. Kagan writes, “It is considerably more expensive to improve the quality of housing, education and health of the approximately one million children living in poverty in America today than to urge their mothers to kiss, talk to, and play with them more consistently.” In his view, “to suggest to poor parents that playing with and talking to their infant will protect the child from future academic failure and guarantee life success” is an act of dishonesty. But that does not go far enough. It is also an unwitting act of reproach: it implies to disadvantaged parents that if their children do not turn out the way children of privilege do it is their fault–that they are likely to blame for the flawed wiring of their children’s brains.

5.

In 1973, when Hillary Clinton–then, of course, known as Hillary Rodham–was a young woman just out of law school, she wrote an essay for the Harvard Educational Review entitled “Children Under the Law.” The courts, she wrote, ought to reverse their long-standing presumption that children are legally incompetent. She urged, instead, that children’s interests be considered independently from those of their parents. Children ought to be deemed capable of making their own decisions and voicing their own interests, unless evidence could be found to the contrary. To her, the presumption of incompetence gave the courts too much discretion in deciding what was in the child’s best interests, and that discretion was most often abused in cases of children from poor minority families. “Children of these families,” she wrote, “are perceived as bearers of the sins and disabilities of their fathers.”

This is a liberal argument, because a central tenet of liberalism is that social mobility requires a release not merely from burdens imposed by poverty but also from those imposed by family–that absent or indifferent or incompetent parents should not be permitted to destroy a child’s prospects. What else was the classic Horatio Alger story about? In “Ragged Dick,” the most famous of Alger’s novels, Dick’s father runs off before his son’s birth, and his mother dies destitute while Dick is still a baby. He becomes a street urchin, before rising to the middle class through a combination of hard work, honesty, and luck. What made such tales so powerful was, in part, the hopeful notion that the circumstances of your birth need not be your destiny; and the modern liberal state has been an attempt to make good on that promise.

But Mrs. Clinton is now promoting a movement with a different message–that who you are and what you are capable of could be the result of how successful your mother and father were in rearing you. In her book “It Takes a Village,” she criticizes the harsh genetic determinism of “The Bell Curve.” But an ideology that holds that your future is largely decided at birth by your parents’ genes is no more dispiriting than one that holds that your future might be decided at three by your parents’ behavior. The unintended consequence of the zero-to-three movement is that, once again, it makes disadvantaged children the bearers of the sins and disabilities of their parents.

The truth is that the traditional aims of the liberal agenda find ample support in the arguments of John Bruer, of Jerome Kagan, of Judith Rich Harris, and of Gopnik, Meltzoff, and Kuhl. All of them offer considerable evidence that what the middle class perceives as inadequate parenting need not condemn a baby for life, and that institutions and interventions to help children as they approach maturity can make a big difference in how they turn out. It is, surely, a sad irony that, at the very moment when science has provided the intellectual reinforcement for modern liberalism, liberals themselves are giving up the fight.

Full article here

Saturday, 20 January 2018

From normal to genius - Can we change destiny? - Yes

We are always asking ourselves: Is there a way for me to become a genius? According to this article from BBC, yes, it is possible. But it is probable a risk you are not willing to take.

Full link here.

The Mistery of Why Some People Become Sudden Geniuses

By Zaria Gorvett
6 January 2018

   "It was the summer of 1860 and Eadweard Muybridge was running low on books. This was somewhat problematic, since he was a bookseller. He handed his San Francisco shop over to his brother and set off on a stagecoach to buy supplies. Little did he know, he was about to change the world forever.

He was some way into his journey, in north-eastern Texas, when the coach ran into trouble. The driver cracked his whip and the horses broke into a run, leading the coach surging down a steep mountain road. Eventually it veered off and into a tree. Muybridge was catapulted into the air and cracked his head on a boulder.

He woke up nine days later at a hospital 150 miles (241 km) away. The accident left him with a panoply of medical problems, including double vision, bouts of seizures and no sense of smell, hearing or taste. But the most radical change was his personality.

Previously Muybridge had been a genial and open man, with good business sense. Afterwards he was risk-taking, eccentric and moody; he later murdered his wife’s lover. He was also, quite possibly, a genius.

The question of where creative insights come from – and how to get more of them – has remained a subject of great speculation for thousands of years. According to scientists, they can be driven by anything from fatigue to boredom. The prodigies themselves have other, even less convincing ideas. Plato said that they were the result of divine madness. Or do they, as Freud believed, arise from the sublimation of sexual desires? Tchaikovsky maintained that eureka moments are born out of cool headwork and technical knowledge.

But until recently, most sensible people agreed on one thing: creativity begins in the pink, wobbly mass inside our skulls. It surely goes without saying that striking the brain, impaling it, electrocuting it, shooting it, slicing bits out of it or depriving it of oxygen would lead to the swift death of any great visions possessed by its owner.

As it happens, sometimes the opposite is true.

After the accident, Muybridge eventually recovered enough to sail to England. There his creativity really took hold. He abandoned bookselling and became a photographer, one of the most famous in the world. He was also a prolific inventor. Before the accident, he hadn’t filed a single patent. In the following two decades, he applied for at least 10.

In 1877 he took a bet that allowed him to combine invention and photography. Legend has it that his friend, a wealthy railroad tycoon called Leland Stanford, was convinced that horses could fly. Or, more accurately, he was convinced that when they run, all their legs leave the ground at the same time. Muybridge said they didn’t.

To prove it he placed 12 cameras along a horse track and installed a tripwire that would set them off automatically as Stanford’s favourite racing horse, Occident, ran. Next he invented the inelegantly named “zoopraxiscope”, a device which allowed him to project several images in quick succession and give the impression of motion. To his amazement, the horse was briefly suspended, mid-gallop. Muybridge had filmed the first movie – and with it proven that yes, horses can fly.

Jon Sarkin was transformed from a chiropractor into an artist after a stroke

The abrupt turnaround of Muybridge’s life, from ordinary bookseller to creative genius, has prompted speculation that it was a direct result of his accident. It’s possible that he had “sudden savant syndrome”, in which exceptional abilities emerge after a brain injury or disease. It’s extremely rare, with just 25 verified cases on the planet.

There’s Tony Cicoria, an orthopaedic surgeon who was struck by lightning at a New York park in 1994. It went straight through his head and left him with an irresistible desire to play the piano. To begin with he was playing other people’s music, but soon he started writing down the melodies that were constantly running through his head. Today he’s a pianist and composer, as well as a practicing surgeon.

Another case is Jon Sarkin, who was transformed from a chiropractor into an artist after a stroke. The urge to draw landed almost immediately. He was having “all kinds” of therapy at the hospital – speech therapy, art therapy, physical therapy, occupational therapy, mental therapy – “And they stuck a crayon in my hand and said ‘want to draw?’ And I said ‘fine’,” he says.

Gottfried Mind was an "artistic savant" who drew cats in extraordinary detail (Credit: Alamy)
His first muse was a cactus at his home in Gloucester, Massachusetts. It was the fingered kind, like you might find in Western movies from the 50s. Even his earliest paintings are extremely abstract. In some versions the branches resemble swirling green snakes, while others they are red, zig-zagging staircases.

His works have since been published in The New York Times, featured on album covers and been covered in a book by a Pulitzer Prize-winning author. They regularly sell for $10,000 (£7,400).

Most strikingly there’s Jason Padgett, who was attacked at a bar in Tacoma, Washington in 2002. Before the attack, Padgett was a college dropout who worked at a futon store. His primary passions in life were partying and chasing girls. He had no interest in maths – at school, he didn’t even get into algebra class.

But that night, everything changed. Initially he was taken to the hospital with a severe concussion. “I remember thinking that everything looked funky, but I thought it was just the narcotic pain shot they gave me” he says. “Then the next morning I woke up and turned on the water. It looked like little tangent lines [a straight line that touches a single point on a curve], spiralling down.”.

When you’re bashed on the head, the effects are similar to a dose of LSD

From then onwards Padgett’s world was overlaid with geometric shapes and gridlines. He became obsessed with maths and is now renowned for his drawings of formulas such as Pi. Today he’s incredulous that he once didn’t know what a tangent was. “I do feel like two people, and I’ve had my mum and my dad say that. It’s like having two separate kids,” he says.

Why does this happen? How does it work? And what does it teach us about what makes geniuses special?

There are two leading ideas. The first is that when you’re bashed on the head, the effects are similar to a dose of LSD. Psychedelic drugs are thought to enhance creativity by increasing the levels of serotonin, the so-called “happiness hormone”, in the brain. This leads to “synaesthesia”, in which more than one region is simultaneously activated and senses which are usually separate become linked.

Many people don’t need drugs to experience this: nearly 5% of the population has some form of synaesthesia, with the most common type being “grapheme-colour”, in which words are associated with colours. For example, the actor Geoffrey Rush believes that Mondays are pale blue.

When the brain is injured, dead and dying cells leak serotonin into the surrounding tissue. Physically, this seems to encourage new connections between brain regions, just as with LSD. Mentally, it allows the person to link the seemingly unconnected. “We’ve found permanent changes before – you can actually see connections in the brain that weren’t there before,” says Berit Brogaard, a neuroscientist who directs the Brogaard Lab for Multisensory Research, Florida.

But there is an alternative. The first clue emerged in 1998, when a group of neurologists noticed that five of their patients with dementia were also artists – remarkably good ones. Specifically, they had frontotemporal dementia, which is unusual in that it only affects some parts of the brain. For example, visual creativity may be spared, while language and social skills are progressively destroyed.

One of these was “Patient 5”. At the age of 53 he had enrolled in a short course in drawing at a local park, though he previously had no interest in such things. It just so happened to coincide with the onset of his dementia; a few months later, he was having trouble speaking.

Soon he became irritable and eccentric, developing a compulsion to search for money on the street. As his illness progressed, so did his drawing, advancing from simple still-life paintings to haunting, impressionist depictions of buildings from his childhood.

To find out what was going on, the scientists performed 3D scans of their patients’ brains. In four out of five cases, they found lesions on the left hemisphere. Nobel Prize-winning research from the 1960s shows that the two halves of the brain specialise in different tasks; in general, the right side is home to creativity and the left is the centre of logic and language.

 ‘Autistic savants’ can have superhuman skills to rival those of the Renaissance polymaths

But the left side is also something of a bully. “It tends to be the dominant brain region,” says Brogaard. “It tends to suppress very marginal types of thinking - highly original, highly creative thinking, because it’s beneficial for our decision-making abilities and our ability to function in normal life.”. The theory goes that as the patients’ left hemispheres became progressively more damaged, their right hemispheres were free to flourish.

This is backed up by several other studies, including one in which creative insight was roused in healthy volunteers by temporarily dialling down activity in the left hemisphere and increasing it in the right. “[the lead researcher] Allen Snyder’s work was replicated by another person, so that’s the theory that I think is responsible,” says Darold Treffert, a psychiatrist from the University of Wisconsin Medical School, who has been studying savant syndrome for decades.

But what about more mainstream geniuses? Could the theory explain their talents, too?

Consider autism. From Daniel Tammet, who can perform mind-boggling mathematical calculations at stupendous speed, to Gottfried Mind, the “Cat Raphael”, who drew the animal with an astonishing level of realism, so-called “autistic savants” can have superhuman skills to rival those of the Renaissance polymaths.

It’s been estimated that as many as one in 10 people with autism have savant syndrome and there’s mounting evidence the disorder is associated with enhanced creativity. And though it’s difficult to prove, it’s been speculated that numerous intellectual giants, including Einstein, Newton, Mozart, Darwin and Michelangelo, were on the spectrum.

One theory suggests that autism arises from abnormally low levels of serotonin in the left hemisphere in childhood, which prevents the region from developing normally. Just like with sudden savant syndrome, this allows the right hemisphere to become more active.

They are usually able to have a normal life, but they also have this obsession - Berit Brogaard, neuroscientist

Interestingly, many people with sudden savant syndrome also develop symptoms of autism, including social problems, obsessive compulsive disorder (OCD) and all-consuming interests. “It got so bad that if I had money I would spray the money with Lysol and put it in the microwave for a few seconds to get rid of the germs,” says Padgett.

“They are usually able to have a normal life, but they also have this obsession,” says Brogaard. This is something universal across all sudden savants. Jon Sarkin compares his art to an instinct. “It doesn’t feel like I like drawing, it feels like I must draw.” His studio contains thousands of finished and unfinished works, which are often scribbled with curves, words, cross-hatchings, and overlapping images.
 
In fact, though they often don’t need to, sudden savants work hard at improving their craft. “I mean, I practiced a lot. Talent and hard work, I think they are indistinguishable – you do something a lot and you get better at it,” says Sarkin. Padgett agrees. “When you’re fixated on something like that, of course you do discover things.”

Muybridge was no exception. After the bet, he moved to Philadelphia and continued with his passion for capturing motion on film, photographing all kinds of activities such as walking up and down the stairs and, oddly, himself swinging a pickaxe in the nude. Between 1883 and 1886, he took more than 100,000 pictures.

“In my opinion at least, the fact that they can improve their abilities doesn’t negate the suddenness or insistence with which they are there,” says Treffert. As our understanding of sudden savant syndrome improves, eventually it’s hoped that we might all be able to unlock our hidden mental powers – perhaps with the help of smart drugs or hardware.

But until then, perhaps us mortals could try putting in some extra hours instead. "

Tuesday, 15 March 2016

Convention, hiding in plain sight and the art of "I don't give a S**t!"

I was just touching the surface, talking with some friends about why some prodigies choose to not help the progress of the entire world and have ordinary jobs instead. It is a complex matter, but one will learn fast that people don't like somebody to finish the test in 5 minutes, or to be faster and better than anyone else, somehow pointing out everyone mediocrity. You cannot enjoy "la dolce vita" if you have a young prodigy or a genius in your class, just because every teacher will compare all with him. And people will start to resent this, and to make your life miserable. Teachers will expect you to be always at your best. Parents will always have a lot of hopes. Due to the environment, you will learn to hide your capabilities, especially if you choose the fast track of schooling, and you will do only what it is enough to go by. For a while. As soon as you hit the emotional maturity, you will explode in brilliance, you will be amazed and amazing. At that stage, you do not care anymore for what "they" would think. Your personality is fully formed, you know what are your goals and how to achieve them.

That should be the way, but not all of us reach this stage. Some of the young geniuses will hide the entire life, some of them will try to look normal, some will secretly fight against the system. Either way, the problem is, in my humble opinion, that we push them too far intellectually, without caring about the not fully formed emotional maturity.

When one learn what he really want, after the emotional maturity stage, he/she will often choose what is best, even if this is contrary to the general opinion. I often find myself being asked about some decision, and choosing not to follow it, even if it is more efficient and logical, just because others do not understand the ideas behind it. But i do this out of social convention, if the other way is not affecting me personally. If it is something important, i will just do what i think it is the best, without a second thought.

That's all for today, have a nice week!
G.

Wednesday, 30 December 2015

Super Humans - Sachin Tendulkar

Today i will write about Kinetic/Kinestethic Geniuses.

First on the list is Sachin Tendulkar (1973-present) - Indian cricket player

The "Super Natural," the "Willow Prince," "the King," and even "a god" are terms that have been used to describe Indian cricket batsman Sachin Tendulkar, yet he refers to himself as a normal person who is satisfied with being counted among the best batsmen in the world. A young prodigy, Tendulkar began playing cricket as a toddler and at age sixteen was selected to play on India's national team. In 2001 he became the first batsman to score a total of 10,000 runs in one-day cricket. He is an idol in his native India, where he lives humbly even though his salary and product endorsements have made him the world's wealthiest cricket player. Still at the top of his game in 2003, Tendulkar is sometimes compared to the great West Indian cricketer Vivian Richards and to Australian cricket legend Don Bradman , who died in 2001 at age 92. Sachin Ramesh Tendulkar was born April 24, 1973, in Bombay (now Mumbai), India. His father, Ramesh Tendulkar, was a language professor; he died in 1999. Sachin has two brothers and a sister. He began playing cricket at age 2 1/2, with his nanny in the family's backyard, using a broomstick for a bat. As he grew, he began playing street cricket with neighborhood children, and after watching the World Cup on television at age ten, he began to get serious about the game. Although left-handed, he learned to bat with his right hand as a youth. Street rules required players to bat with their nonpreferred hand to increase their chances of being eliminated. After the family moved close to Shivaji Park in Bombay, Sachin's game began to improve. At ages twelve and thirteen, he was practicing and playing school matches a total of twelve hours a day on some days. He once played fifty-four matches in a row. His coach, Ramakant Acherkar, encouraged Sachin to play his hardest by placing a rupee on top of one of his wicket stumps and offering the money to anyone who got Sachin out. If no one did, Sachin won the money. He still treasures thirteen of the coins he won in that way. At age thirteen, Sachin scored his first century (100 runs) at school, and the following year he was invited to a net session with the Indian professional team. At age fifteen, he and a friend set a world record of runs (664) for his school, and at sixteen, Sachin was picked to play his first Test match for India against Pakistan. His father signed the papers for him, because Sachin was too young. By age seventeen, Sachin had toured New Zealand and England with the team. On the England tour he scored a match-saving 119 points, which made him the second youngest test century-maker ever. From there, his career has become better each year. On March 31, 2001, he became the first batsman to score 10,000 runs in one-day cricket, setting this record during a five-match series against Australia. He has broken the world record for maximum centuries in International cricket and continues to set records with every passing season. At the end of 2002 he was ranked third in the world in Test batting and was preparing for a forty-seven-day tour of New Zealand, after recovering from a hamstring injury. For a country in love with the sport of cricket, Sachin Tendulkar has become a national treasure, idolized by millions. Cricket players the world over consider him probably the most complete batsman the game has ever seen. He is so skillful that there is practically no shot he cannot play. Bowlers dread facing him, because he is unflappable and succumbs to none of their tricks. Ace Australian bowler Shane Warne once said Tendulkar gave him nightmares.

The 5'5" boyish star is mobbed by fans wherever he goes in India, except for his old neighborhood in Mumbai, where he still plays cricket with friends and is treated like a normal person. Every televised game he plays becomes a national event, and the details of his life are a national obsession. He is accustomed to the fuss but remains humble, in spite of the fact that he is the world's wealthiest cricketer and appears in about one-fourth of all Indian television commercials, so prolific are his endorsements. Tendulkar is the first Indian to achieve such heights in both sports and media stardom. Over his career, he has helped to bring Indian cricket from a little-televised sport to a major national pastime. His talent and skill place him in the world annals of cricket, with the best of players from any country. Yet, he humbly said, in 1999, "I've never thought of myself as the best batsman in the world. My ambition was to be considered one of the best, and to stay there."

Chronology

1973 Born April 24 in Bombay (now Mumbai), India

1975 At age 2 1/2, begins hitting ball with a broomstick in his backyard

1983 Watches World Cup cricket match on television and becomes seriously interested in the game
1986 Scores his first century (100 runs) in his school, at age 13

1987 Is invited by captain of Indian team to a net session with the team

1988 With friend Vinod Kambli, sets world record of 664 runs for Shardashram School at inter-school tournament; at age 15, scores 100no (not out) in his first-class debut for Bombay team

1989 Scores 103no at one-day debut for Bombay team

1989-90 At age 16, is selected to play for India against Pakistan, making his international debut in One-Day Internationals (ODIs) and Test matches. On a tour of New Zealand, scores 88, just short of being the youngest century-maker in a test match
1990 Tours England and scores 119 in a match, making him the second-youngest test century-maker
1995 Signs first contract with WorldTel, for five-year commercial endorsements and marketing deal that will make him the world's richest cricket player
1996 Is appointed captain of Indian team—will serve until early 1998

1997 Daughter, Sarah, is born to Tendulkar and wife, Anjali, in October

1998 Makes 155 runs against Australia in Madras (now Chennai), India; meets 90-year-old Australian cricket master Sir Donald Bradman
1999 Begins having back pain in January—doctors later determine scar tissue in his lower vertebrae had become inflamed, but problem can be quickly corrected; bats in India's first World Cup match, against South Africa; flies home from match in England when father dies of cardiac arrest in mid-May; is again named captain of Indian team, in July; second child, a son, is born September 23
2001 Is invited to Bradman's 92nd birthday party, shortly before his death at 92; becomes first batsman to score 10,000 runs in one-day cricket, setting this record in third game of five-match series against Australia on March 31; re-signs with WorldTel; in November, is accused of tampering with cricket ball at match in Port Elizabeth, South Africa, and fined
2002 Pulls out of seven-match India-West Indies series with hamstring injuries; makes his thirtieth Test century, one more than Bradman; at end of November ranks third in international Test ratings, with 856 points and 58.46 average

Awards and Accomplishments - Has broken the record for maximum centuries in International cricket (One-Day Internationals + Test matches)
1992 Became youngest player to score 1,000 runs
1997 Voted Wisden Cricketer of the Year
1998 Received Rajiv Gandhi Khel Ratna Award, India's highest honor for achievement in sports, for the year 1997
1999 Received Padma Shri Award, bestowed by India's president, the nation's highest civilian honor
2001 On March 31, became first batsman to score 10,000 runs in one-day cricket
2002 On September 5, became youngest cricket player to play 100th Test match

Wednesday, 28 October 2015

Gifted Children - The latest report on Terman studies

As i promised today i will try to resume and check what i think is the most important part of the life cycle studies of Terman, and i will provide a link in the end to the full report on PDF, if you want to read it.

Noted ideas and concept in the report:
- Using different intelligence tests, mostly based on Stanford-Binet, 661 gifted boys and girls were found, all of them with IQ of 140 or more. In all, the final number of subjects amounted to 1,528.
- In 1927, when the average age of the group was 17, the first follow up survey was published under the title The Promise of Youth.
- The general idea was in that time that a gifted child will revert to average at maturity or decline and sicken and eventually die. Quote from Terman studies: "With few exceptions the superior child becomes the superior adult, superior in nearly every respect to the generality, though, as in childhood, the degree of the superiority differs in different areas." This was a very brave idea, one that still needed support  even 60 years later.
- The question which naturally interests us most, however, is to what extent is the promise of childhood fulfilled by the achievements of later life? As a general rule, it would seem, the intelligent
child develops into the intelligent adult. As we might expect from the mode of selection, "the
superiority of the gifted group is greatest in intellectual ability, scholastic accomplishment,
and vocational success." Tests applied in 1927, 1939, and 1950-52 show that at every stage their
mental superiority is astonishingly well sustained. "The majority of the subjects remained close to
the 99th percentile of the generality; and this was true even of those whose careers were not
particularly notable." Indeed, judged by the test mainly employed in the follow-up surveys (a test
of "concept mastery") "not only do the mentally superior hold their own, they actually increase in
intellectual stature." Here i want to say that probably because this is based mostly on IQ, they tend to have better intellectual achievements, and this study is not relevant for gifts in other area (arts, gymnastics, sport, dance, mechanics etc.)
- Talking about college and graduation, the proportion of success is ten times as high as that which would hold for a random group of the same age. None of the gifted individuals are in the lowest occupational categories, though these categories account for about 13 per cent of the general urban population.
- Additional evidence of the surprisingly high achievement attained by men only is furnished by their publications and patents. These include nearly 2,000 scientific and technical articles, some sixty books or monographs on science, art, literature, or the humanities (including textbooks translated into
several languages), thirty-three novels, and 700 plays, short stories, essays, and miscellaneous
articles, not to mention thousands of journalistic contributions and scripts for film, radio, or television. The number of technical patents runs to at least 230.
- Out of the 1,500 cases, however, there were eighty or ninety whose apparent progress fell short of expectation. Since their intelligence, as assessed by tests, differs little from that of the rest of the group, it is evident that outstanding accomplishments call for something else besides sheer innate ability. A comparison between the most successful and the least successful suggests that health, emotional stability, ambition, and will to work are equally indispensable. This does not affect the main inference to be drawn from all these investigations-namely, the value of intelligence testing, even in its present imperfect form, for the purpose of predicting future accomplishment. Here anyway could be another matter, as i meet some very gifted people when i was doing my personal research for "The ones that got away" a study about geniuses that prefer a normal life in anonymity and choose family instead of career. Nothing to blame here, and to understand this, check the case on Kim Ung-yong (IQ-210)
- They were noticed to do what is called assortative mating,a strong tendency for gifted men and women to marry persons who, like themselves, are above average in general intelligence. Their children had an average IQ of 133.
- The total expense of this studies has been approximately a quarter of a million dollars.

The books about this subject are fascinating, bringing the genius and geniality in a new light, changing our pre-conceptions and giving us ideas for the new generations. Is a study like no other, still on going, and i had the occasion to have a conversation with one of the original members of Terman group this year in a online forum.



The link for the full text here

Friday, 23 October 2015

Terman data cycle life study of genius and talented children

One of the most longevive study of genius ever done was started by Terman. It was called Terman life-cycle study of children with high ability, and took place in between 1922-1991 (ICPSR 08092). 
The principal investigator of this was professor Lewis M. Terman and here it is a summary of his work:


This study of the personal and life characteristics of children with high ability follows the 1,528 respondents from 1922 through the latest series of interviews with the surviving cohort of 720 in 1986. The original research objectives were to replace myths about intellectually superior children with documented facts. In 1922, the children were identified on the basis of an intelligence test as being in the top one percent of the population. Their development was followed over the next sixty years via questionnaires, personal interviews, and various test instruments. Questions were asked about their health, physical and emotional development, school histories, recreational activities, home life, family background, educational, vocational, and marital histories. Questions were also asked about income, emotional stability, and socio-political attitudes. The follow-up questionnaires were concerned with the evolution of the respondents' careers, activity patterns, and personal adjustment. Since 1972 there has been special emphasis on the aging process. These longitudinal data will continue to be collected as long as living members of the original cohort contribute data.
You can find most of the data here, organized in multiple datasets:
http://www.icpsr.umich.edu/icpsrweb/DSDR/studies/08092

P. S. I will make one aditional post about the life and achievements of Lewis Terman, and a short resume of his collaborators very soon. 

Tuesday, 13 October 2015

Leta Stetter Hollingworth

Leta Stetter Hollingworth (1886-1939) was an educational psychologist. She was a student of
E. L. Thorndike, at University of Nebraska-Lincoln (B.A., 1906), then studied at Teachers College (M.A. in Education, 1913; Ph.D. in Educational Psychology, 1916) - Under E. L. Thorndike
Career:
Assistant principal of School District No. 6, Saline County, Nebraska
Teacher at McCook High School
Clearing-House for Mental Defectives (she administered Binet tests) (1913)
Clinical Psychologist at Bellevue Hospital (1915)
Consulting Psychologist to New York Police Department (1915)
Teachers College, Columbia University -- Professor of Educational Psychology

Major Contribution:
Wrote first comprehensive text on the gifted
Taught first college course on the gifted
Commenced one of the first systematic studies of children with intelligence quotients (IQ) above 180

    Although Leta Stetter Hollingworth is perhaps best known for her work with exceptional children (discussed below), she also performed pioneering work in the field of psychology of women, which greatly overlaped with issues of intelligence and intellectual ability. In the early 1900s, there were two commonly held beliefs regarding women that Hollingworth scientifically. First, it was generally accepted by many members of society (particularly those in power) that women were mentally incapacitated during menstruation. Based on this belief, many employers would not hire women because they believed it was not possible for them to be as productive as men and would not be able to handle major responsibilities due to their monthly impairments. Hollingworth empirically tested this hypothesis and found that women's performance on several cognitive, perceptual, and motor tasks was similar to that of males, even during menstration.

    A second premise that sparked the interest of Hollingworth was the variability hypothesis which asserted that women as a group were more similar than men as a group; that is, men have a much wider range of talents as well as defects than do women. This proposition was used to explain why there were more men who were geniuses as well as more men who were mentally deficient and in institutions. The correlate of this premise is that women will never be able to achieve the highest achievements and would have to settle for mediocrity. In a large study, Hollingworth examined 1,000 male newborns and 1,000 female newborns and found no greater inherent variability in males than in females.

    In the 1920s, Hollingworth's efforts shifted to the study of children, particularly exceptional children. Much of her work on giftedness was being conducted at the same time as Terman's study on giftedness. While the two individuals never met, they had great respect for each other and the work each was doing. Many of Terman's beliefs about giftedness coincided with those held by Hollingworth, but they diverged on one major point. Terman believed that giftedness was inherited and was only interested in defining and describing giftedness. Although Hollingworth acknowledged the role of inheritance in giftedness, she also believed that educational and environmental factors played key roles in the development of potential. Resultantly, Hollingworth was more interested in how to properly nurture giftedness and how to appropriately educate gifted individuals.

    One of Hollingworth's most notable studies regarding giftedness was sparked in November, 1916, when she saw for the first time a child test above 180 IQ on the Stanford-Binet (S-B). She became intrigued, and over the span of the next 23 years was able to find 11 other children in the New York City region with such intellectual giftedness and attempted and in-depth study of their genius. Knowing that she would never live long enough to see all of the children well into their adult lives, she meticulously attempted to build a framework upon which great future research and findings could be accomplished. She deserves much credit for pioneering into such a challenging field. Those who test above 180 IQ (S-B) are characterized by a strong desire for personal privacy, seldom volunteer personal information, do not like to have attention called to their families and homes, and are afraid of the potential ramifications of being labeled as "special" in society. Amidst all of these concerns, Leta S. Hollingworth conducted research consistent both with scientific interest and with the preservation of personal privacy in mind. She laid a foundation for the study of truly gifted children.

Publications
The Psychology of Subnormal Children (1920)
Special Talents and Defects (1923)
Gifted Children: Their Nature and Nurture (1926)
The Psychology of the Adolescent (1928)
Children Above 180 IQ Stanford-Binet: Origin and Development (1942)


Christopher Michael Langan

One of the reference points in genius study and analysis is Chris Langan's life. Who is this, you will ask? 
Christopher Michael Langan (born c. 1952) is an American autodidact with an IQ reported to be between 195 and 210, although IQ tests are highly unreliable at such high levels. He has been described as "the smartest man in America" as well as "the smartest man in the world" by the media. Langan has developed a "theory of the relationship between mind and reality" which he calls the "Cognitive-Theoretic Model of the Universe" (CTMU).
Langan was born in San Francisco, California, circa 1952. He spent most of his early life in Montana, with his mother and three brothers. His mother was the daughter of a wealthy shipping executive but was cut off from her family's fortune. Langan didn't grow up with his biological father as he died or disappeared before he was born. This eventually resulted in an economic struggle for the family, causing a food scarcity, reducing the family to a life of poverty.
During elementary school, Langan was repeatedly skipped ahead, which resulted in torment by his peers. Although teachers praised Langan for his college-level work, his peers still bullied him, not for his intelligence, but because of his family's socio-economic status. Langan has disclosed that he was brutally beaten by his stepfather, Jack Langan. Chris Langan recalled that his "stepfather constantly asked [Chris] difficult questions, and when I'd give him correct answers to those questions, he'd bat me in the mouth or something of that nature to let me know he didn't appreciate a guy trying to be smarter than he was."At the age of twelve years, Langan began weight training, and forcibly ended the abuse by throwing his stepfather out of the house and telling him never to return when he was fourteen.
Langan says he spent the last years of high school mostly in independent study, teaching himself "advanced math, physics, philosophy, Latin and Greek". He allegedly earned a perfect score on the SAT (pre-1995 scale) despite taking a nap during the test. Langan attended Reed College and later Montana State University, but faced with financial and transportation problems, and believing that he could teach his professors more than they could teach him, he dropped out.
Langan took a string of labor-intensive jobs for some time, and by his mid-40s had been a construction worker, cowboy, Forest Service Ranger, farmhand, and, for over twenty years, a bouncer on Long Island. Langan was also approached and contracted by Disney Research and he previously worked for Virtual Logistix, a technology company.According to company records, Langan "produced original research in various fields of mathematics, including graph theory, algebra, advanced logic and model theory, abstract computation theory and the theory of computational intractability, artificial intelligence, physics and cosmology". Langan said he developed a "double-life strategy": on one side a regular guy, doing his job and exchanging pleasantries, and on the other side coming home to perform equations in his head, working in isolation on his Cognitive-Theoretic Model of the Universe (CTMU).
In 1999 Langan and others formed a non-profit corporation called the "Mega Foundation" to "create and implement programs that aid in the development of gifted individuals and their ideas."
Langan has allegedly completed Design for a Universe, but is searching for ways to optimize the publicity and sale of the book. Langan has also been quoted as saying that "you cannot describe the universe completely with any accuracy unless you're willing to admit that it's both physical and mental in nature" and that the CTMU "explains the connection between mind and reality, therefore the presence of cognition and universe in the same phrase". He calls his proposal "a true 'Theory of Everything', a cross between John Archibald Wheeler's 'Participatory Universe' and Stephen Hawking's 'Imaginary Time' theory of cosmology."In conjunction with his ideas, Langan has claimed that "you can prove the existence of God, the soul and an afterlife, using mathematics."
The CTMU has gained both praise, and controversy in the scientific community. Robert Seitz, a former NASA Executive and Mega Foundation director stated "every physicist is inundated with amateurs' ‘Theories of Everything,' but Chris' CTMU is very, very different".On the flip side, the CTMU theory has been criticized for its use of convoluted language. Langan's use of terms he has invented (or redefined) has made his exposition obscure, leading some to question his honest intention to make himself clear.
In 2004, Langan moved with his wife Gina (née LoSasso), a clinical neuropsychologist, to northern Missouri, where he owns and operates a horse ranch and undertakes activities for his Foundation.
Asked about creationism, Langan has said:
I believe in the theory of evolution, but I believe as well in the allegorical truth of creation theory. In other words, I believe that evolution, including the principle of natural selection, is one of the tools used by God to create mankind. Mankind is then a participant in the creation of the universe itself, so that we have a closed loop. I believe that there is a level on which science and religious metaphor are mutually compatible.
Langan has said elsewhere that he does not belong to any religious denomination, explaining that he "can't afford to let [his] logical approach to theology be prejudiced by religious dogma."He calls himself "a respecter of all faiths, among peoples everywhere."
(source:Wikipedia)

I know i am a bit lazy and i just took this information, but i think it is important to find about some living examples to whom we can relate, before we start to talk about some brainy complicated theories and methods.

Saturday, 10 October 2015

Introduction

Hello everyone. This is my story. This could be everyone story. What do you mean when you say genius? But talented? Multipotentialite? Multipode? Renaissance person? What all of those have in common? Is genius something you are born with or you can achieved? If the answer to last option is yes, how can you achieved? This are only few of the questions i will try to find an answer for you. This blog is one of my many side projects, or maybe just a way to put all my info in just one place. We will see what will happen. Enough for today. See you soon.

G.