Monday, February 13, 2012

The Upside of Dyslexia

By ANNIE MURPHY PAUL
     (author of “Origins.” She is at work on a book about the science of learning.)
Published: February 4, 2012

THE word “dyslexia” evokes painful struggles with reading, and indeed this learning disability causes much difficulty for the estimated 15 percent of Americans affected by it. Since the phenomenon of “word blindness” was first documented more than a century ago, scientists have searched for the causes of dyslexia, and for therapies to treat it. In recent years, however, dyslexia research has taken a surprising turn: identifying the ways in which people with dyslexia have skills that are superior to those of typical readers. The latest findings on dyslexia are leading to a new way of looking at the condition: not just as an impediment, but as an advantage, especially in certain artistic and scientific fields.


Dyslexia is a complex disorder, and there is much that is still not understood about it. But a series of ingenious experiments have shown that many people with dyslexia possess distinctive perceptual abilities. For example, scientists have produced a growing body of evidence that people with the condition have sharper peripheral vision than others. Gadi Geiger and Jerome Lettvin, cognitive scientists at the Massachusetts Institute of Technology, used a mechanical shutter, called a tachistoscope, to briefly flash a row of letters extending from the center of a subject’s field of vision out to its perimeter. Typical readers identified the letters in the middle of the row with greater accuracy. Those with dyslexia triumphed, however, when asked to identify letters located in the row’s outer reaches.


Mr. Geiger and Mr. Lettvin’s findings, which have been confirmed in several subsequent studies, provide a striking demonstration of the fact that the brain separately processes information that streams from the central and the peripheral areas of the visual field. Moreover, these capacities appear to trade off: if you’re adept at focusing on details located in the center of the visual field, which is key to reading, you’re likely to be less proficient at recognizing features and patterns in the broad regions of the periphery.


The opposite is also the case. People with dyslexia, who have a bias in favor of the visual periphery, can rapidly take in a scene as a whole — what researchers call absorbing the “visual gist.”


Intriguing evidence that those with dyslexia process information from the visual periphery more quickly also comes from the study of “impossible figures,” like those sketched by the artist M. C. Escher. A focus on just one element of his complicated drawings can lead the viewer to believe that the picture represents a plausible physical arrangement.


A more capacious view that takes in the entire scene at once, however, reveals that Escher’s staircases really lead nowhere, that the water in his fountains is flowing up rather than down — that they are, in a word, impossible. Dr. Catya von Károlyi, an associate professor of psychology at the University of Wisconsin, Eau Claire, found that people with dyslexia identified simplified Escher-like pictures as impossible or possible in an average of 2.26 seconds; typical viewers tend to take a third longer. “The compelling implication of this finding,” wrote Dr. Von Károlyi and her co-authors in the journal Brain and Language, “is that dyslexia should not be characterized only by deficit, but also by talent.”


The discovery of such talents inevitably raises questions about whether these faculties translate into real-life skills. Although people with dyslexia are found in every profession, including law, medicine and science, observers have long noted that they populate fields like art and design in unusually high numbers. Five years ago, the Yale Center for Dyslexia and Creativity was founded to investigate and illuminate the strengths of those with dyslexia, while the seven-year-old Laboratory for Visual Learning, located within the Harvard-Smithsonian Center for Astrophysics, is exploring the advantages conferred by dyslexia in visually intensive branches of science. The director of the laboratory, the astrophysicist Matthew Schneps, notes that scientists in his line of work must make sense of enormous quantities of visual data and accurately detect patterns that signal the presence of entities like black holes.


A pair of experiments conducted by Mr. Schneps and his colleagues, published in the Bulletin of the American Astronomical Society in 2011, suggests that dyslexia may enhance the ability to carry out such tasks. In the first study, Mr. Schneps reported that when shown radio signatures — graphs of radio-wave emissions from outer space — astrophysicists with dyslexia at times outperformed their nondyslexic colleagues in identifying the distinctive characteristics of black holes.


In the second study, Mr. Schneps deliberately blurred a set of photographs, reducing high-frequency detail in a manner that made them resemble astronomical images. He then presented these pictures to groups of dyslexic and nondyslexic undergraduates. The students with dyslexia were able to learn and make use of the information in the images, while the typical readers failed to catch on.


Given that dyslexia is universally referred to as a “learning disability,” the latter experiment is especially remarkable: in some situations, it turns out, those with dyslexia are actually the superior learners.


Mr. Schneps’s study is not the only one of its kind. In 2006, James Howard Jr., a professor of psychology at the Catholic University of America, described in the journal Neuropsychologia an experiment in which participants were asked to pick out the letter T from a sea of L’s floating on a computer screen. Those with dyslexia learned to identify the letter more quickly.


Whatever special abilities dyslexia may bestow, difficulty with reading still imposes a handicap. Glib talk about appreciating dyslexia as a “gift” is unhelpful at best and patronizing at worst. But identifying the distinctive aptitudes of those with dyslexia will permit us to understand this condition more completely, and perhaps orient their education in a direction that not only remediates weaknesses, but builds on strengths.


Image retrieved from: http://farm6.staticflickr.com/5109/5559239360_6cbcacf989_z.jpg
                                 and http://helpfulhealthtips.com/Images/D/dyslexia1.jpg

Article retrieved from: http://www.nytimes.com/2012/02/05/opinion/sunday/the-upside-of-dyslexia.html?_r=3&hpw

Developmental Coordination Disorder Often Misdiagnosed As ADHD



13 Feb 2012


Children showing difficulty carrying out routine actions, such as getting dressed, playing with particular types of games, drawing, copying from the board in school and even typing at the computer, could be suffering from developmental coordination disorder (DCD), and not necessarily from ADHD or other more familiar disorders, points out Prof. Sara Rosenblum of the Department of Occupational Therapy at the University of Haifa, whose new study set out to shed new light on DCD. "In quite a few cases, children are not diagnosed early enough or are given an incorrect diagnosis, which can lead to frustration and a sense of disability. It can even result in a decline that requires psychological therapy," she explains. 

A person with DCD suffers from childhood and throughout adult life. Unlike various illnesses or trauma, says Prof. Rosenblum, this disorder is expressed in the inability to control the process of carrying out a particular motor task, consolidate it in memory and repeat the same task automatically. "Simple tasks, such as closing buttons, tying laces, writing or riding a bicycle, which for healthy people become automatic, are difficult to carry out for people with DCD. When those children grow up, they are more likely to have trouble with temporal and spatial organization and have difficulty estimating distance and speed, which could prevent them from learning to drive successfully and even to ride a bicycle," she adds. 

Since the deficit is neural-based, meaning that it is founded in atypical brain activity, it is particularly difficult to diagnose in children. Going undiagnosed often exacerbates the individual's sense of frustration and shame, and they are therefore more likely to grow up to be introverted adults. The current study, conducted by Prof. Rosenblum andDr. Miri Livneh-Zirinski of Kupat Holim Meuhedet (one of Israel's public health plans), set out to identify DCD in children by means of a simple and noninvasive test of writing tasks. 

Two sample groups participated in the study: 20 children diagnosed with DCD and 20 children with no known symptoms of the disorder. Each participant was asked to write down their name, write out the alphabet and copy a full paragraph. The tasks were conducted using a special electronic pen and pad and a program developed by the researcher that shows objective measures that relate to the temporal and spatial characteristics of the writing, and pressure implemented on the pad. These measures can be analyzed with regard to motor, sensory and cognitive performance by taking note of elements such as in-air time per stroke, force of writing, and the time taken to write each letter. 

The study found that the two groups showed very different characteristics in various parameters. Those with DCD took up to three times longer than the other children writing each letter; they also held the pen in the air for longer; and they placed more pressure on the pad with the pen. According to Prof. Rosenblum, these results give further emphasis to the suffering that children with DCD undergo in the classroom and any time they are required to complete a writing task. 

"Children with DCD are 'transparent': they have no physiological or intellectual deformities, and in many cases, they are above average in their intelligence. But they are not able to complete tasks that require coordination between motor, sensory and cognitive functions. Our study comes to show how a simple everyday task can be used to diagnose individuals with DCD, and subsequently enable them to get the necessary treatment and guidance with occupational therapy," concludes Prof. Rosenblum. 


Image retrieved from: http://us.123rf.com/400wm/400/400/dobric/dobric1101/dobric110100005/8663577-daily-morning-girls-life-including-wake-up-yoga-teeth-cleaning-shower-and-breakfast.jpg


Article retrieved from: http://www.medicalnewstoday.com/releases/241476.php

Improved Behavior For Children With ADHD Taking Part In Physical Activity Program



19 Jan 2012
While children who suffer from attention-deficit hyperactivity disorder (ADHD) struggle with hyperactive-impulses and have trouble maintaining attention, a recent study found that a structured physical activity program may help to improve their muscular capacities, motor skills, behavior assessments, and the ability to process information. This new exploratory study was released in the recent issue of the Journal of Attention Disorders (published by SAGE).

Authors Claudia Verret, Marie-Claude Guay, Claude Berthiaume, Phillip Gardiner, and Louise Béliveau enrolled ten children in a physical activity program that included a warm-up, aerobic activity, muscular and motor-skill exercises, and a cool-down. The objective of each session was to maintain moderate to high-intensity activity throughout each session as observed by a heart-rate monitor. 

"A main finding of this study is that both parents and teachers observed better behavioral scores in the physical activity group," wrote the authors. "This could mean that positive effects of physical activity may occur in different settings of the children's life." 

The authors monitored ten children with ADHD who were participating in the physical activity program three times a week and eleven different children with ADHD as part of a control group.

The authors wrote, "Considering the beneficial effect of physical activity participation on some important ADHD-related variables, schools and parents of children with ADHD should look to maximize opportunities for structured group physical activity in their children's life." 


Image retrieved from: http://i.telegraph.co.uk/multimedia/archive/00660/news-graphics-2008-_660685a.jpg

Wednesday, December 14, 2011

Corey’s Story: My Son No Longer Needs Intervention After Using Fast ForWord

December 8, 2011 by Norene Wiesen



This post is the seventh in a series aimed at sharing the success stories, both personal and professional, that Scientific Learning employees witness every day.

“My son personally was identified in kindergarten as a struggling learner.  He is a July baby and he started kindergarten at a very young age five.   Right away, red flags were going up for the teacher.  Emotionally, academically, developmentally, we realized that he might not have been ready to acquire the skills that were being taught in the kindergarten classroom.

We worked really hard over the summer to put Zack through [Fast ForWord] Language Basics and [Fast ForWord] Reading Prep*.  These products are really appropriate for a kindergarten-aged learner.

When he returned to school in the fall and he was re-assessed for intervention, the teacher made a comment: ‘I don’t know what you’ve done with Zack over the summer, but his scores are now above where he needs to be and we no longer will need to provide him with any intervention support. We are just going to continue to monitor him and watch and make sure he continues to grow along the right pathway.’

It brought tears to my eyes knowing that we continued to do the right things and the only one variable that changed was using Fast ForWord with him.  It built his confidence and built his self-esteem.”

*Note: Fast ForWord® Language Basics and Reading Prep are no longer available.  Current Fast ForWord products for kindergarten-aged learners include Fast ForWord Language and Reading Readiness.

Article retrieved from: http://www.scilearn.com/blog/no-longer-needs-intervention-after-fast-forword.php

Toddler Vocabulary Development: Shopping With Your Child

October 11, 2011 by Martha Burns, Ph.D

 


There is no better time to teach your toddler the names of things than when you go out shopping together. The wonderful thing about shopping with your child at a grocery store or clothing store is that he can sit in a shopping cart and interact with you while pointing to all the interesting colors, shapes and objects around him.
Never mind that as he gets closer to two years old he may want you to focus on the candy aisle, or buy everything fuzzy or toy-like.  Use the time to provide names for all the wonderful objects you can see.

“Wow!  Look at these oranges today—they are so big. They look like big balls don’t they?”
“Hey, those peppers are green and red and yellow, just like Christmas lights—what fun!”
“I see blue shirts and white shirts. What color do you like?”

As you talk about all the shapes and colors, your tot will begin to want you to tell him more names. If he can’t ask you “What is that?” yet, he will start to point to objects he wants you to name or let him touch. (Of course you don’t want him touching fresh food items or knocking down items on shelves, but there is no harm in letting him feel a soft cloth or looking more closely at the funny picture on a box of cereal.)
Here are some tips for making shopping both fun and educational for your child:
  • Color, shape, and size: Notice colors, shapes, and sizes as you shop the fruit and vegetable aisle with your toddler. Tell your child that bananas are “long and yellow,” and that oranges, apples, limes and lemons look like “orange, red, green and yellow balls.” At the clothing store, “big pants” may be for “big daddy” and tiny shoes may be “just the right size” for your child.
  • Texture and touch:  Clothing stores are all about touch. PJ’s are usually “soft,” and raincoats are “smooth and stiff,” while some coats may be “furry.” Your child will love feeling all the different textures.
  • Questions: Note that celery has “leaves” and broccoli has “flowers.” Ask questions, “Why do you think cauliflower is named that way?” Point out that potatoes have “eyes” and wonder aloud, “Why do they have so many and we have only two?”
  • My shopping cart: Some grocery stores have begun offering small grocery carts for young children to push around. You may want to wait until your tot is two or a little older, but it can be fun to let him choose apples, oranges or boxed cereals and push them in his own cart. At home you can use empty boxes to “play store” on a rainy day.
You might hear yourself saying, “not today” or “not now” as your child wants you to add everything to your basket (or his), but giving him the opportunity to explore the world around him is a valuable experience for both of you.  You get to cross a few items off your to-do list, while your toddler works on vocabulary development through conversation and play, with his favorite person—you.

Tuesday, November 29, 2011

How the Brain Strings Words Into Sentences

ScienceDaily (Nov. 28, 2011) — Distinct neural pathways are important for different aspects of language processing, researchers have discovered, studying patients with language impairments caused by neurodegenerative diseases.


While it has long been recognized that certain areas in the brain's left hemisphere enable us to understand and produce language, scientists are still figuring out exactly how those areas divvy up the highly complex processes necessary to comprehend and produce language.

Advances in brain imaging made within the last 10 years have revealed that highly complex cognitive tasks such as language processing rely not only on particular regions of the cerebral cortex, but also on the white matter fiber pathways that connect them.

"With this new technology, scientists started to realize that in the language network, there are a lot more connecting pathways than we originally thought," said Stephen Wilson, who recently joined the University of Arizona's department of speech, language and hearing sciences as an assistant professor. "They are likely to have different functions because the brain is not just a homogeneous conglomerate of cells, but there hasn't been a lot of evidence as to what kind of information is carried on the different pathways."

Working in collaboration with his colleagues at the UA, the department of neurology at the University of California, San Francisco and the Scientific Institute and University Hospital San Raffaele in Milan, Italy, Wilson discovered that not only are the connecting pathways important for language processing, but they specialize in different tasks.

Two brain areas called Broca's region and Wernicke's region serve as the main computing hubs underlying language processing, with dense bundles of nerve fibers linking the two, much like fiber optic cables connecting computer servers. But while it was known that Broca's and Wernicke's region are connected by upper and a lower white matter pathways, most research had focused on the nerve cells clustered inside the two language-processing regions themselves.

Working with patients suffering from language impairments because of a variety of neurodegenerative diseases, Wilsons' team used brain imaging and language tests to disentangle the roles played by the two pathways. Their findings are published in a recent issue of the scientific journal Neuron.
"If you have damage to the lower pathway, you have damage to the lexicon and semantics," Wilson said. "You forget the name of things, you forget the meaning of words. But surprisingly, you're extremely good at constructing sentences."

"With damage to the upper pathway, the opposite is true; patients name things quite well, they know the words, they can understand them, they can remember them, but when it comes to figuring out the meaning of a complex sentence, they are going to fail."

The study marks the first time it has been shown that upper and lower tracts play distinct functional roles in language processing, the authors write. Only the upper pathway plays a critical role in syntactic processing.
Wilson collected the data while he was a postdoctoral fellow working with patients with neurodegenerative diseases of varying severity, recruited through the Memory and Aging Center at UCSF. The study included 15 men and 12 women around the age of 66.

Unlike many other studies investigating acquired language disorders, which are called aphasias and usually caused by damage to the brain, Wilson's team had a unique opportunity to study patients with very specific and variable degrees of brain damage.

"Most aphasias are caused by strokes, and most of the strokes that affect language regions probably would affect both pathways," Wilson said. "In contrast, the patients with progressive aphasias who we worked with had very rare and very specific neurodegenerative diseases that selectively target different brain regions, allowing us to tease apart the contributions of the two pathways."

To find out which of the two nerve fiber bundles does what in language processing, the team combined magnetic resonance brain imaging technology to visualize damaged areas and language assessment tasks testing the participants' ability to comprehend and produce sentences.

"We would give the study participants a brief scenario and ask them to complete it with what comes naturally," Wilson said. "For example, if I said to you, 'A man was walking along the railway tracks. He didn't hear the train coming. What happened to the man?' Usually, you would say, 'He was hit by the train,' or something along those lines."

"But a patient with damage to the upper pathway might say something like 'train, man, hit.' We found that the lower pathway has a completely different function, which is in the meaning of single words."
To test for comprehension of the meaning of a sentence, the researchers presented the patient with a sentence like, "The girl who is pushing the boy is green," and then ask which of the two pictures depicted that scenario accurately.

"One picture would show a green girl pushing a boy, and the other would show a girl pushing a green boy," Wilson said. "The colors will be the same, the agents will be the same, and the action is the same. The only difference is, which actor does the color apply to?"

"Those who have only lower pathway damage do really well on this, which shows that damage to that pathway doesn't interfere with your ability to use the little function words or the functional endings on words to figure out the relationships between the words in a sentence."

Wilson said that most previous studies linking neurodegeneration of specific regions with cognitive deficits have focused on damage to gray matter, rather than the white matter that connects regions to one another.
"Our study shows that the deficits in the ability to process sentences are above and beyond anything that could be explained by gray matter loss alone," Wilson added. "It is the first study to show that damage to one major pathway more than then other major pathway is associated with a specific deficit in one aspect of language."

The study was primarily funded by grants from the National Institutes of Health and included the following co-authors: Sebastian Galantucci, Maria Carmela Tartaglia, Kindle Rising, Dianne Patterson (both at the UA's department of speech, language and hearing sciences), Maya Henry, Jennifer Ogar, Jessica DeLeon, Bruce Miller and Maria Luisa Gorno-Tempini.



Using magnetic resonance imaging of the brain, researchers can visualize the two main language processing regions, Broca's region (yellow) and Wernicke's region (purple). (Credit: Stephen Wilson)




Story Source:
The above story is reprinted from materials provided by University of Arizona. The original article was written by Daniel Stolte, University Communications.

Note: Materials may be edited for content and length. For further information, please contact the source cited above.

Journal Reference:

Stephen M. Wilson, Sebastiano Galantucci, Maria Carmela Tartaglia, Kindle Rising, Dianne K. Patterson, Maya L. Henry, Jennifer M. Ogar, Jessica DeLeon, Bruce L. Miller, Maria Luisa Gorno-Tempini. Syntactic Processing Depends on Dorsal Language Tracts. Neuron, 2011; 72 (2): 397 DOI: 10.1016/j.neuron.2011.09.014

Wednesday, November 2, 2011

How To Help Your Child's Brain Grow Up Strong

September 14, 2011

Babies may look helpless, but as soon as they come into the world, they're able to do a number of important things. They can recognize faces and moving objects. They're attracted to language. And from very early on, they can differentiate their mother from other humans.
"They really come equipped to learn about the world in a way that wasn't appreciated until recently," says neuroscientist Sandra Aamodt. "It took scientists a long time to realize that their brains are doing some very complicated things."
Aamodt and fellow neuroscientist Sam Wang explain how the human brain develops from infancy to adolescence in their new book, Welcome to Your Child's Brain. The two researchers also offer tips for parents to help their children eat their spinach, learn their ABCs and navigate elementary school.

Before all of those things, however, children have to learn how to talk. Babies can differentiate syllables and new sounds from very early on, but there are ways for parents to help their children develop their language skills faster and more efficiently.
"The most simple way is to talk to your baby and around your baby a lot," says Aamodt. "And the other thing that parents can do is to respond when the baby speaks, even if the baby isn't forming the words correctly or you don't understand it. Just act like some communication has occurred — smile and give the baby a little pat — and that encourages the baby to continue to try to communicate."
But because language is so social, says Wang, passive exposure to words really doesn't help babies learn in any way.
"For instance, videos that are often shown to babies containing language are not nearly so effective," he says. "In some cases, people try to teach babies language by showing them videos in a foreign language. It doesn't work very well at all because these are not social ways of exposing a child to language."
Parents should also realize that their children may reach certain intellectual milestones at different times — and that's OK.
"Language is acquired quite well before the age of 6, but trying to force your children to read before the age of 4 is an effort that doesn't work very well because the brain is not very well-equipped to tell the letter 'b' from the letter 'd' and so on," says Wang. "[But] it's something that older children can do without any effort at all."
And children who grow up in bilingual households have a distinct advantage over their peers.
"Kids who learn two languages young are better able to learn abstract rules and to reverse rules that they've already learned," says Aamodt. "They're less likely to have difficulty choosing between conflicting possibilities when there are two possible responses that both present themselves. They're also better at figuring out what other people are thinking, which is probably because they have to figure out which language to use every time they talk to somebody in order to communicate."

Teaching Self-Control
Aamodt and Wang also emphasize the importance of teaching your children self-control from an early age.
"This is really critical because there are so many things parents want to do when they read parenting books," he says. "They take steps to teach their children math or reading ... but a big thing we can do for our children is to do the best to foster the development of self-control and willpower. Self-control and the ability to restrain impulses is associated with success at every age, whether it means being able to read at age 4, or being able to restrain impulses at a later age, or even what your peers think of you in high school. At all of these ages, willpower and self-control is a stronger predictor of academic success than IQ."
When children are young, they can learn self-control by focusing on any fun activity — whether that means studying martial arts or playing with dolls and planning a make-believe tea party.
"It gives the child practice at planning and organizing a series of topics to achieve a desired goal," says Aamodt. "When you're planning a tea party, you can't be acting like a fighter pilot. You have to be acting like a lady having a tea party. So pretending is one of the earliest types of exposure most kids get to planning and organizing their actions. And the more you practice that, the better you're going to be at it."
Making sure your child has fun while learning self-control is vitally important. Aamodt and Wang recommend, for instance, telling your child to pretend he or she is protecting a castle instead of just saying, "Stand still."
"Taking advantage of a child's natural sense of fun is a terrific way to instill these things," says Wang. "This is not the kind of thing that works well if it's forced. It can be something as easy as pretending to guard the castle or playing a take-turns game where you say, 'I'm going to draw an ear on this piece of paper, and when you see an ear, then it's your time to listen. And if you see a mouth on this other piece of paper, then it's your time to talk.' So all of these things can be done in very simple ways — in ways that are often fun — and the more fun it is, the more likely the child is to pay attention for a longer period of time. These things are fun, they don't cost money, and anybody can do it."
Dr. Sam Wang is an associate professor of neuroscience at Princeton University. Dr. Sandra Aamodt is a former editor-in-chief of Nature Neuroscience. They are also the co-authors of Welcome to Your Brain: Why You Lose Your Car Keys but Never Forget How to Drive and Other Puzzles of Everyday Life.

Interview Highlights

On rewards vs. punishment

Dr. Aamodt: "With a child, you're not only concerned with getting a child to behave. You're also concerned with building a good relationship with your child. You want your child to think of you as a wonderful person to be around. You also don't want to teach our kids that the way we solve our interpersonal problems is with violence."
Dr. Wang: "Negative reinforcement is often not very effective with deterring behavior. ... negative reinforcement punishment tends to not be very general. So the child will avoid doing the specific thing that led to the punishment and not learn some broader rule. From a practical standpoint, negative reinforcement is not terribly effective."
On time out

Dr. Wang: "One thing that's similar between how children and nonhuman animals learn best is the phenomenon of timeout, which has entered the lexicon as a means of getting a child to avoid doing something later. It comes from technical literature from which the long phrase is 'timeout and reinforcement,' which is if the kid does something undesirable, you simply take the child, go to the corner, and just sit there. And you don't say anything at all. You don't have to be negative. You don't have to mete out a punishment. You just have to say, 'Sit there for 3 minutes, and when I come back, we're done.' And then you forget about it and move on. This works at all ages."
On stress and pregnancy

Dr. Aamodt: "Stress is not good for babies. No ethics review board in the world would approve [an experiment] in which we deliberately damaged [pregnant women's] babies. But there are these so-called experiments of nature. One experiment that was done looked at women who had been evacuated from a hurricane in Louisiana when they were pregnant. What that study found was a substantially increased rate of autism in babies who had been in their fifth or sixth month of gestation at the time they fled the hurricane. The effect was stronger in cases where the hurricane was more dangerous."
On 'tiger parenting'

Dr. Wang: "I'm not very much of a tiger mother. I'm more of a pussy cat dad."

Images retrieved from: http://catalog.fairbanksfoodbank.org/image/store/0/productImages/healthy_children.jpg


 

 Images retrieved from: http://catalog.fairbanksfoodbank.org/image/store/0/productImages/healthy_children.jpg

  Article retrieved from: http://www.npr.org/2011/09/14/140340903/how-to-help-your-childs-brain-grow-up-strong

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