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The brain is a highly interrelated organ, and its multiple functions operate in a richly coordinated fashion. Emotional well-being and social competence provide a strong foundation for emerging cognitive abilities, and together they are the bricks and mortar that comprise the foundation of human development. The emotional and physical health, social skills, and cognitive-linguistic capacities that emerge in the early years are all important prerequisites for success in school and later in the workplace and community.

Prior research demonstrates that understanding theory of mind (ToM) is seriously and similarly delayed in late-signing deaf children and children with autism. Are these children simply delayed in timing relative to typical children, or do they demonstrate different patterns of development? The current research addressed this question by testing 145 children (ranging from 3 to 13 years) with deafness, autism, or typical development using a ToM scale. Results indicate that all groups followed the same sequence of steps, up to a point, but that children with autism showed an importantly different sequence of understandings (in the later steps of the progression) relative to all other groups.

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Research on theory of mind increasingly encompasses apparently contradictory findings. In particular, in initial studies, older preschoolers consistently passed false-belief tasks-a so-called "definitive" test of mental-state understanding-whereas younger children systematically erred. More recent studies, however, have found evidence of false-belief understanding in 3-year-olds or have demonstrated conditions that improve children's performance. A meta-analysis was conducted (N = 178 separate studies) to address the empirical inconsistencies and theoretical controversies. When organized into a systematic set of factors that vary across studies, false-belief results cluster systematically with the exception of only a few outliers. A combined model that included age, country of origin, and four task factors (e.g., whether the task objects were transformed in order to deceive the protagonist or not) yielded a multiple R of .74 and an R2 of .55; thus, the model accounts for 55% of the variance in false-belief performance. Moreover, false-belief performance showed a consistent developmental pattern, even across various countries and various task manipulations: preschoolers went from below-chance performance to above-chance performance. The findings are inconsistent with early competence proposals that claim that developmental changes are due to tasks artifacts, and thus disappear in simpler, revised false-belief tasks; and are, instead, consistent with theoretical accounts that propose that understanding of belief, and, relatedly, understanding of mind, exhibit genuine conceptual change in the preschool years.

Different areas of the brain are responsible for different abilities, like movement, language and emotion, and develop at different rates. Brain development builds on itself, as connections eventually link with each other in more complex ways. This enables the child to move and speak and think in more complex ways.

Changes to the areas of the brain responsible for social processes can lead teens to focus more on peer relationships and social experiences. The emphasis on peer relationships, along with ongoing prefrontal cortex development, might lead teens to take more risks because the social benefits outweigh the possible consequences of a decision. These risks could be negative or dangerous, or they could be positive, such as talking to a new classmate or joining a new club or sport.

Despite the stresses and challenges that come with adolescence, most teens go on to become healthy adults. Some changes in the brain during this critical phase of development actually help support resilience and mental health over the long term.

This research examines whether an individual's linguistic knowledge, either as a speaker of a particular language or as a bilingual, influences theory of mind development. Three- and four-year-old English monolinguals, Mandarin Chinese monolinguals, and Mandarin-English bilinguals were given appearance-reality, level 2 perspective-taking, and false-belief tasks. All children were tested twice, a week apart; the bilinguals were tested in each of their languages. The 4-year-olds in each group performed significantly better than the corresponding 3-year-olds. Both monolingual groups performed similarly on the tasks, and the bilinguals performed significantly better than the monolingual groups, although when the two testing times were examined separately, they had only a near-significant tendency to perform better at the second testing time. Possible explanations for this evidence of a bilingual advantage are greater inhibitory control, greater metalinguistic understanding, and a greater sensitivity to sociolinguistic interactions with interlocutors.

One way to avoid focusing on results during this phase of development is to emphasize the breadth of skill development over depth. Exposing children to a wide variety of activities lays a foundation for developing skills in a range of fields. This is the time to engage children in music, reading, sports, math, art, science, and languages.

Yes, we want children to read well and learn the fundamentals of math. But we should not disregard emotional intelligence. The advantages of learning during this first critical period of brain development should extend to interpersonal skills such as kindness, empathy, and teamwork.

Research suggests that some skills cannot be learned nearly as well after this first critical period of brain development. For example, research shows that children in this age range are best suited to learn the patterns of language development, enabling them to master a second language to the same level as a native language. However, once children reach age 8, their language learning proficiency decreases, and second languages are not spoken as well as native ones. The same age effect is found when learning musical abilities such as perfect pitch.

Thanks to recent advances in technology, we have a clearer understanding of how these effects are related to early brain development. Neuroscientists can now identify patterns in brain activity that appear to be associated with some types of negative early experiences.1

The early stages of development are strongly affected by genetic factors; for example, genes direct newly formed neurons to their correct locations in the brain and play a role in how they interact.12,13 However, although they arrange the basic wiring of the brain, genes do not design the brain completely.14,15

The development of the brain begins in the first few weeks after conception. Most of the structural features of the brain appear during the embryonic period (about the first 8 weeks after fertilization); these structures then continue to grow and develop during the fetal period (the remainder of gestation).19,20

The first key event of brain development is the formation of the neural tube. About two weeks after conception, the neural plate, a layer of specialized cells in the embryo, begins to slowly fold over onto itself, eventually forming a tube-shaped structure. The tube gradually closes as the edges of the plate fuse together; this process is usually complete by four weeks after conception. The neural tube continues to change, eventually becoming the brain and spinal cord.20,21

About seven weeks after conception the first neurons and synapses begin to develop in the spinal cord. These early neural connections allow the fetus to make its first movements, which can be detected by ultrasound and MRI even though in most cases the mother cannot feel them. These movements, in turn, provide the brain with sensory input that spurs on its development. More coordinated movements develop over the next several weeks.22

During adolescence, sleep patterns change because of hormonal changes in the brain. But children still need plenty of sleep for their overall health and development, including their brain development.

Fuhrmann, D., Knoll, L.J., & Blakemore, S-J. (2015). Adolescence as a sensitive period of brain development. Trends in Cognitive Sciences, 19(10), 558-566. doi: 10.1016/j.tics.2015.07.008. doi: 10.1016/j.tics.2015.07.008.

Early childhood is a time of tremendous brain development. The young developing brain literally changes shape and size in response to everything encountered in the early years. New environments, life experiences, caretakers, and relationships can all affect the way complex brain circuits are wired. This network of synaptic connections will ultimately determine brain function and the development of behavior.

For example, language skills learning is much easier for young children. They can learn a non-native language and attain proficiency more easily before puberty. So the sensitive period for language development, especially second language, is from birth to before puberty.

Under most laws, young people are recognized as adults at age 18. But emerging science about brain development suggests that most people don't reach full maturity until the age 25. Guest host Tony Cox discusses the research and its implications with Sandra Aamodt, neuroscientist and co-author of the book Welcome to Your Child's Brain.

In a moment, we'll hear about how child advocates are hoping to use this research to change the laws about their foster care. But first, to learn more about adolescent brain development and maturity, we are joined now by neuroscientist, Sandra Aamodt. She is the coauthor of the book, "Welcome to Your Child's Brain: How the Mind Grows from Conception to College."

COX: So this is important. Are the physiological changes in the brain, in terms of the development of young people, as significant and impactful as the cultural changes and environmental changes that they go through vis-a-vis peer pressure things of that sort? ff782bc1db