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human behavior | Definition, Theories, & Development …

Conception occurs when the sperm from the male penetrates the cell wall of an egg from the female. Human development during the 38 weeks from conception to birth is divided into three phases. The first, the germinal period, lasts from the moment of conception until the time the fertilized egg is implanted in the wall of the uterus, a process that typically takes 10 to 14 days. A second phase, lasting from the second to the eighth week after conception, is called the embryonic period and is characterized by differentiation of the major organs. The last phase, from the eighth week until delivery, is called the fetal period and is characterized by dramatic growth in the size of the organism.

Prenatal development is extremely rapid; by the 18th day the embryo has already taken some shape and has established a longitudinal axis. By the ninth week the embryo is about 2.5 centimetres (one inch) long; face, mouth, eyes, and ears have begun to take on well-defined form, and arms, legs, hands, feet, and even fingers and toes have appeared. The sex organs, along with muscle and cartilage, also have begun to form. The internal organs have a definite shape and assume some primitive function. The fetal period (from about the second month until birth) is characterized by increased growth of the organism and by the gradual assumption of physical functions. By the 20th week the mother can often feel the movements of the fetus, which is now about 20 centimetres long. By the 32nd week the normal fetus is capable of breathing, sucking, and swallowing, and by the 36th week it can show a response to light and sound waves. The head of the fetus is unusually large in relation to other parts of its body because its brain develops more rapidly than do other organs. The seventh month is generally regarded as the earliest age at which a newborn can survive without medical assistance.

By definition, infancy is the period of life between birth and the acquisition of language approximately one to two years later. The average newborn infant weighs 3.4 kilograms (7.5 pounds) and is about 51 centimetres long; in general, boys are slightly larger and heavier than girls. (The period of the newborn covers the first five to seven days, which the infant normally spends recovering from the stresses of delivery.) During their first month, infants sleep for about 1618 hours a day, with five or six sleep periods alternating with a like number of shorter episodes of wakefulness. The total amount of time spent sleeping decreases dramatically, however, to 912 hours a day by age two years, and, with the cessation of nocturnal feedings and morning and afternoon naps, sleep becomes concentrated in one long nocturnal period. Newborns spend as much time in active sleep (during which rapid eye movements occur) as in quiet sleep, but by the third month they spend twice as much time in quiet as in active sleep, and this trend continues (at a much slower rate) into adulthood.

At birth the infant displays a set of inherited reflexes, some of which serve his very survival. An infant only two hours old typically will follow a moving light with his eyes and will blink or close them at the sudden appearance of a bright light or at a sharp, sudden sound nearby. The newborn infant will suck a nipple or almost any other object (e.g., a finger) inserted into his mouth or touching his lips. He will also turn his head toward a touch on the corner of his mouth or on his cheek; this reflex helps him contact the nipple so he can nurse. He will grasp a finger or other object that is placed in his palm. Reflexes that involve sucking and turning toward stimuli are intended to maintain sustenance, while those involving eye-closing or muscle withdrawal are intended to ward off danger. Some reflexes involving the limbs or digits vanish after four months of age; one example is the Babinski reflex, in which the infant bends his big toe upward and spreads his small toes when the outer edge of the sole of his foot is stroked.

The newborn baby can turn his head and eyes toward and away from visual and auditory stimuli, signaling interest and alarm, respectively. Smiling during infancy changes its meaning over the first year. The smiles that newborns display during their first weeks constitute what is called reflex smiling and usually occur without reference to any external source or stimulus, including other people. By two months, however, infants smile most readily in response to the sound of human voices, and by the third or fourth month they smile easily at the sight of a human face, especially one talking to or smiling at the infant. This social smiling, as it is called, marks the beginning of the infants emotional responses to other people.

Research shows the achievement of extraordinary perceptual sophistication over the first months of life. The fetus is already sensitive to stimulation of its skin, especially in the area around the mouth, by the eighth week of intrauterine development. Judging from their facial expressions when different substances are placed on their tongues, newborn infants apparently discriminate between bitter, salty, or sweet tastes; they have an innate preference for sweet tastes and even prefer a sucrose solution to milk. Newborns can also discriminate between different odours or smells; six-day-old infants can tell the smell of their mothers breast from that of another mother.

Much more is known, however, about infants ability to see and hear than about their senses of touch, smell, or taste. During the first half-year of life outside the womb, there is rapid development of visual acuity, from 20/800 vision (in Snellen notation) among two-week-olds to 20/70 vision in five-month-olds to 20/20 vision at five years. Even newborn infants are sensitive to visual stimulation and attend selectively to certain visual patterns; they will track moving stimuli with their gaze and can discriminate among lights that vary in brightness. They show a noticeable predilection for the sight of the human face, and by the first or second month they are able to discriminate between different faces by attending to the internal featureseyes, nose, and mouth. By the third month, infants can identify their mothers by sight and can discriminate between some facial expressions. By the seventh month, they can recognize a particular person from different perspectivesfor example, a full face versus a profile of that face. Infants can identify the same facial expression on the faces of different people and can distinguish male from female faces.

Newborns can also hear and are sensitive to the location of a sound source as well as to differences in the frequency of the sound wave. They also discriminate between louder and softer sounds, as indicated by the startle reflex and by rises in heart rate. Newborns can also discriminate among sounds of higher or lower pitch. Continuous rather than intermittent sounds and low tones rather than high-pitched ones are apparently those most soothing to infants.

Even young infants show a striking sensitivity to the tones, rhythmic flow, and individual sounds that together make up human speech. A young infant can make subtle discriminations among phonemes, which are the basic sounds of language, and is able to tell the difference between pa, ga, and ba. Furthermore, infants less than one year old can make discriminations between phonemes that some adults cannot because the particular discrimination is not present in the adult language. A distinction between ra and la does not exist in the Japanese language, and hence Japanese adults fail to make that discrimination. Japanese infants under nine months can discriminate between these two phonemes but lose that ability after one year because the language they hear does not require that discrimination.

Both movement and contrasts between dark and light tend to attract an infants attention. When an alert newborn is placed in a dark room, he opens his eyes and looks around for edges. If he is shown a thick black bar on a white background, his eyes dart to the bars contour and hover near it, rather than wander randomly across the visual field. Certain other visual qualities engage the infants attention more effectively than do others. The colour red is more attractive than others, for example, and objects characterized by curvilinearity and symmetry hold the infants attention longer than do ones with straight lines and asymmetric patterns. Sounds having the pitch and timbre of the human voice are more attractive than most others; the newborn is particularly responsive to the tones of a mothers voice, as well as to sounds with a great deal of variety. These classes of stimuli tend to elicit the most prolonged attention during the first 8 to 10 weeks of life. During the infants third month a second principle, called the discrepancy principle, begins to assume precedence. According to this principle, the infant is most likely to attend to those events that are moderately different from those he has been exposed to in the past. For instance, by the third month, the infant has developed an internal representation of the faces of the people who care for him. Hence, a slightly distorted facee.g., a mask with the eyes misplacedwill provoke more sustained attention than will a normal face or an object the infant has never seen before. This discrepancy principle operates in other sensory modalities as well.

Even infants less than one year old are capable of what appears to be complex perceptual judgments. They can estimate the distance of an object from their body, for example. If an infant is shown a rattle and hears its distinctive sound and the room is then darkened, the infant will reach for the rattle if the sound indicates that the object can be grasped but will not reach if the sound indicates that it is beyond his grasp.

More dramatically, infants will also reach for an object with a posture appropriate to its shape. If an infant sees a round object in the shape of a wheel and hears its distinctive sound and also sees a smaller rattle and hears its sound, he will reach in the dark with one hand in a grasping movement if he hears the sound of the rattle but will reach with both hands spread apart if he hears the sound associated with the wheel.

The four-month-old infant is also capable of rapidly learning to anticipate where a particular event will occur. After less than a minute of exposure to different scenes that alternate on the right and left side of their visual field, infants will anticipate that a picture is about to appear on the right side and will move their eyes to the right before the picture actually appears. Similarly, infants only five to six months old can detect the relation between the shape of a persons mouth and the sound that is uttered. Thus, they will look longer at a face that matches the sound they are hearing than at one where there is a mismatch between the mouths movements and the sound being uttered.

Infants develop an avoidance reaction to the appearance of depth by the age of 8 to 10 months, when they begin to crawl. This discovery was made on the surface of an apparatus called the visual cliff. The latter is a table divided into two halves, with its entire top covered by glass. One half of the top has a checkerboard pattern lying immediately underneath the glass; the other half is transparent and reveals a sharp drop of a metre or so, at the bottom of which is the same checkerboard pattern. The infant is placed on a board on the centre of the table. The mother stands across the table and tries to tempt her baby to cross the glass on either the shallow or the deep side. Infants younger than seven months will unhesitatingly crawl to the mother across the deep side, but infants older than eight months avoid the deep side and refuse to cross it. The crying and anxiety that eight-month-olds display when confronted with the need to cross the deep side are the result of their ability to perceive depth but also, and more importantly, their ability to recognize the discrepancy of sitting on a solid surface while nevertheless seeing the visual bottom some distance below. Both nervous-system maturation and experience contribute to this particular cognitive advance.

Finally, infants create perceptual categories by which to organize experience, a category being defined as a representation of the dimensions or qualities shared by a set of similar but not identical events. Infants will treat the different colours of the spectrum, for example, according to the same categories that adults recognize. Thus, they show greater attentiveness when a shade of red changes to yellow than when a light shade of red merely replaces a darker shade of the same colour. Five-month-old infants can tell the difference between the moving pattern of lights that corresponds to a person walking and a randomly moving version of the same number of lights, suggesting that they have acquired a category for the appearance of a person walking. By one year of age, infants apparently possess categories for people, edible food, household furniture, and animals. Finally, infants seem to show the capacity for cross-modal perceptioni.e., they can recognize an object in one sensory modality that they have previously perceived only in another. For example, if an infant sucks a nubby pacifier without being able to see it and then is shown that pacifier alongside a smooth one, the infants longer look at the nubby pacifier suggests that he recognizes it, even though he previously experienced only its tactile qualities.

Infants make robust advances in both recognition memory and recall memory during their first year. In recognition memory, the infant is able to recognize a particular object he has seen a short time earlier (and hence will look at a new object rather than the older one if both are present side by side). Although newborns cannot remember objects seen more than a minute or two previously, their memory improves fairly rapidly over the first four or five months of life. By one month they are capable of remembering an object they saw 24 hours earlier, and by one year they can recognize an object they saw several days earlier. Three-month-old infants can remember an instrumental response, such as kicking the foot to produce a swinging motion in a toy, that they learned two weeks earlier, but they respond more readily if their memory is strengthened by repeated performances of the action.

By contrast, recall memory involves remembering (retrieving the representation, or mental image) an event or object that is not currently present. A major advance in recall memory occurs between the 8th and 12th months and underlies the childs acquisition of what Piaget called the idea of the permanent object. This advance becomes apparent when an infant watches an adult hide an object under a cloth and must wait a short period of time before being allowed to reach for it. A six-month-old will not reach under the cloth for the hidden object, presumably because he has forgotten that the object was placed there. A one-year-old, however, will reach for the object even after a 30-second delay period, presumably because he is able to remember its being hidden in the first place. These improvements in recall memory arise from the maturation of circuits linking various parts of the brain together. The improvements enable the infant to relate an event in his environment to a similar event in the past. As a result, he begins to anticipate his mothers positive reaction when the two are in close face-to-face interaction, and he behaves as if inviting her to respond. The infant may also develop new fears, such as those of objects, people, or situations with which he is unfamiliari.e., which he cannot relate to past experiences using recall memory.

As stated previously, Piaget identified the first phase of mental development as the sensorimotor stage (birth to two years). This stage is marked by the childs acquisition of various sensorimotor schemes, which may be defined as mental representations of motor actions that are used to obtain a goal; such actions include sucking, grasping, banging, kicking, and throwing. The sensorimotor stage, in turn, was differentiated by Piaget into six subphases, the first four of which are achieved during the initial year. During the first subphase, which lasts one month, the newborns automatic reflexes become more efficient. In the second subphase, the infants reflex movements become more coordinated, though they still consist largely of simple acts (called primary circular actions) that are repeated for their own sake (e.g., sucking, opening and closing the fists, and fingering a blanket) and do not reflect any conscious intent or purpose on the infants part. During the third phase, lasting from the 4th to the 8th month, the infant begins to repeat actions that produce interesting effects; for example, he may kick his legs to produce a swinging motion in a toy. In the fourth subphase, from the 8th to the 12th month, the child begins coordinating his actions to attain an external goal; he thus begins solving simple problems, building on actions he has mastered previously. For example, he may purposely knock down a pillow to obtain a toy hidden behind it. During the fifth subphase, covering the 12th to 18th months, the child begins to invent new sensorimotor schemes in a form of trial-and-error experimentation. He may change his actions toward the same object or try out new ones to achieve a particular goal. For example, if he finds that his arm alone is not long enough, he may use a stick to retrieve a ball that rolled beneath a couch. In the final subphase of infancy, which is achieved by about the 18th month, the child starts trying to solve problems by mentally imagining certain events and outcomes rather than by simple physical trial-and-error experimentation.

The childs actions thus far have shown progressively greater intentionality, and he has developed a primitive form of representation, which Piaget defined as a kind of mental imagery that can be used to solve a problem or attain a goal for which the child has no habitual, available action. An important part of the childs progress in his first year is his acquisition of what Piaget calls the idea of object permanencei.e., the ability to treat objects as permanent entities. According to Piaget, the infant gradually learns that objects continue to exist even when they are no longer in view. Children younger than six months do not behave as if objects that are moved out of sight continue to exist; they may grab for objects they see but lose all interest once the objects are withdrawn from sight. However, infants of nine months or older do reach for objects hidden from view if they have watched them being hidden. Children aged 12 to 18 months may even search for objects that they have not themselves witnessed being hidden, indicating that they are capable of inferring those objects location. Show such a child a toy placed in a box, put both under a cover, and then remove the box; the child will search under the cover as though he inferred the location of the toy.

The first of the two basic sounds made by infants includes all those related to crying; these are present even at birth. A second category, described as cooing, emerges at about eight weeks and includes sounds that progress to babbling and ultimately become part of meaningful speech. Almost all children make babbling sounds during infancy, and no relationship has been established between the amount of babbling during the first six months and the amount or quality of speech produced by a child at age two. Vocalization in the young infant often accompanies motor activity and usually occurs when the child appears excited by something he sees or hears. Environmental influences ordinarily do not begin to influence vocalization seriously before two months of age; in fact, during the first two months of postnatal life, the vocalizations of deaf children born to deaf parents are indistinguishable from those of infants born to hearing parents. Environmental effects on the variety and frequency of the infants sounds become more evident after roughly eight weeks of age. The use of meaningful words differs from simple babbling in that speech primarily helps to obtain goals, rather than simply reflecting excitement.

Emotions are distinct feelings or qualities of consciousness, such as joy or sadness, that reflect the personal significance of emotion-arousing events. The major types of emotions include fear, sadness, anger, surprise, excitement, guilt, shame, disgust, interest, and happiness. These emotions develop in an orderly sequence over the course of infancy and childhood.

Even during the first three or four months of life, infants display behavioral reactions suggestive of emotional states. These reactions are indicated by changes in facial expression, motor activity, and heart rate and of course by smiling and crying. Infants show a quieting of motor activity and a decrease in heart rate in response to an unexpected event, a combination that implies the emotion of surprise. A second behavioral profile, expressed by increased movement, closing of the eyes, an increase in heart rate, and crying, usually arises in response to hunger or discomfort and is a distress response to physical privation. A third set of reactions includes decreased muscle tone and closing of the eyes after feeding, which may be termed relaxation. A fourth pattern, characterized by increased movement of the arms and legs, smiling, and excited babbling, occurs in response to moderately familiar events or social interaction and may be termed excitement. In the period from 4 to 10 months, new emotional states appear. The crying and resistance infants display at the withdrawal of a favourite toy or at the interruption of an interesting activity can be termed anger. One-year-old infants are capable of displaying sadness in response to the prolonged absence of a parent.

Finally, infants begin displaying signs of the emotion of fear by their fourth to sixth month; a fearful response to noveltyi.e., to events that are moderately discrepant from the infants knowledgecan be observed as early as four months. If an infant at that age hears a voice speaking sentences but there is no face present, he may show a fearful facial expression and begin to cry. By 7 to 10 months of age, an infant may cry when approached by an unfamiliar person, a phenomenon called stranger anxiety. A month or two later the infant may cry when his mother leaves him in an unfamiliar place; this phenomenon is called separation anxiety. It is no accident that both stranger and separation anxiety first appear about the time the child becomes able to recall past events. If an infant is unable to remember that his mother had been present after she leaves the room, he will experience no feeling of unfamiliarity when she is gone. However, if he is able to recall the mothers prior presence and cannot understand why she is no longer with him, that discrepancy can lead to anxiety. Thus, the appearance of stranger and separation anxiety are dependent on the improvement in memorial ability.

These emotions in young infants may not be identical to similar emotional states that occur in older children or adolescents, who experience complex cognitions in concert with emotion; these are missing in the young infant. The older childs anger, for example, can remain strong for a longer period of time because the child can think about the target of his anger. Thus, it may be an error to attribute to the young infant the same emotional states that one can assume are present in older children.

Perhaps the central accomplishment in personality development during the first years of life is the establishment of specific and enduring emotional bonds, or attachment. The person to whom an infant becomes emotionally attached is termed the target of attachment. Targets of attachment are usually those persons who respond most consistently, predictably, and appropriately to the babys signals, primarily the mother but also the father and eventually others. Infants are biologically predisposed to form attachments with adults, and these attachments in turn form the basis for healthy emotional and social development throughout childhood. Infants depend on their targets of attachment not only for food, water, warmth, and relief from pain or discomfort but also for such emotional qualities as soothing and placating, play, consolation, and information about the world around them. Moreover, it is through the reciprocal interactions between child and parent that infants learn that their behaviour can affect the behaviour of others in consistent and predictable ways and that others can be counted on to respond when signaled.

Infants who do not have a particular adult devoted to their care often do not become strongly attached to any one adult and are less socially responsiveless likely to smile, vocalize, laugh, or approach adults. Such behaviour has been observed in children raised in relatively impersonal institutional surroundings and is shared by monkeys reared in isolation.

The social smiling of two-month-old infants invites adults to interact with them; all normal human infants show a social smile, which is, in fact, their first true sign of social responsiveness. The social smile is apparently innate in the human species. At about six months of age infants begin to respond socially to particular people who become the targets of attachment. Although all infants develop some form of attachment to their caregivers, the strength and quality of that attachment depends partly on the parents behaviour to the child. The sheer amount of time spent with a child counts for less than the quality of the adult-child interaction in this regard. The parents satisfaction of the infants physical needs is an important factor in their interaction, but sensitivity to the childs needs and wishes, along with the provision of emotional warmth, supportiveness, and gentleness are equally important. Interestingly, mothers and fathers have been observed to behave differently with their infants and young children: mothers hold, comfort, and calm their babies in predictable and rhythmic ways, whereas fathers play and excite in unpredictable and less rhythmic ways.

One significant difference has been detected in the quality of infants attachment to their caregiversthat between infants who are securely attached and those who are insecurely attached. Infants with a secure attachment to a parent are less afraid of challenge and unfamiliarity than are those with an insecure attachment.

During the first two years of life, the presence of targets of attachment tends to mute infants feelings of fear in unfamiliar situations. A one-year-old in an unfamiliar room is much less likely to cry if his mother is present than if she is not. A one-year-old is also much less likely to cry at an unexpected sound or an unfamiliar object if his mother is nearby. Monkeys, too, show less fear of the unfamiliar when they are with their mothers. This behavioral fact has been used to develop a series of experimental situations thought to be useful in distinguishing securely from insecurely attached infants. These procedures consist of exposing a one-year-old to what is known as the strange situation. Two episodes that are part of a longer series in this procedure involve leaving the infant with a stranger and leaving the infant alone in an unfamiliar room. Children who show only moderate distress when the mother leaves, seek her upon her return, and are easily comforted by her are assumed to be securely attached. Children who do not become upset when the mother leaves, play contentedly while she is gone, and seem to ignore her when she returns are termed insecurely attachedavoidant. Finally, children who become extremely upset when the mother leaves, resist her soothing when she returns, and are difficult to calm down are termed insecurely attachedresistant. About 65 percent of all American children tested are classed as securely attached, 21 percent as insecurely attachedavoidant, and 14 percent as insecurely attachedresistant. All other things being equal, it is believed that those children who demonstrate a secure attachment during the first two years of life are likely to remain more emotionally secure and be more socially outgoing later in childhood than those who are insecurely attached. But insecurely attachedresistant children are more likely to display social or emotional problems later in childhood. The development of a secure or insecure attachment is partly a function of the predictability and emotional sensitivity of an infants caregiver and partly the product of the infants innate temperament.

Individual infants tend to vary in their basic mood and in their typical responses to situations and events involving challenge, restraint, and unfamiliarity. Infants may differ in such qualities as fearfulness, irritability, fussiness, attention span, sensitivity to stimuli, vigour of response, activity level, and readiness to adapt to new events. These constitutional differences help make up what is called a childs temperament. It is believed that many temperament qualities are mediated by inherited differences in the neurochemistry of the brain.

Most individual differences in temperament observed in infants up to 12 months in age do not endure over time and are not predictive of later behaviour. One temperamental trait that is more lasting, however, is that of inhibition to the unfamiliar. Inhibited children, who account for 1020 percent of all one-year-old children, tend to be shy, timid, and restrained when encountering unfamiliar people, objects, or situations. As young infants, they show high levels of motor activity and fretfulness in response to stimulation. (They are also likely to be classified as insecurely attachedresistant when observed in the strange situation.) By contrast, uninhibited children, who account for about 30 percent of all children, tend to be very sociable, fearless, and emotionally spontaneous in unfamiliar situations. As infants, they display low levels of motor activity and irritability in response to unfamiliar stimuli. Inhibited children have a more reactive sympathetic nervous system than do uninhibited children. Inhibited children show larger increases in heart rate in response to challenges and larger increases in diastolic blood pressure when they change from a sitting to a standing posture. In addition, inhibited children show greater activation of the frontal cortex on the right side of the brain, while uninhibited children show greater activation of the frontal cortex on the left side.

These two temperament profiles are moderately stable from the second to the eighth year; studies reveal that about one-half of those children classed as inhibited at age two are still shy, introverted, and emotionally restrained at age eight, while about three-quarters of those children classed as uninhibited have remained outgoing, sociable, and emotionally spontaneous.

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human behavior | Definition, Theories, & Development ...

Department of Neurosciences at UC San Diego School of Medicine

Litvan Wins AAN Movement Disorders Research Award

Professor Irene Litvan, M.D. was awarded the 2018 AAN Movement Disorders Research Award in recognition of outstanding achievements in the field of Parkinson's disease and other movement disorders.

Professor John Ravits, M.D., has been awarded with the prestigious Sheila Essey Award for ALS research. Read more

Dr Joseph Gleeson, MD, has won the Constance Lieber Prize for Innovation in Developmental Neuroscience. Read more

Dr Sean Evans, MD, has won the Barbara and Paul Saltman Distinguished Teaching Award (2016-17).

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Department of Neurosciences at UC San Diego School of Medicine

Best Colleges with Neuroscience Degrees – Universities.com

1 University of Michigan-Ann Arbor Ann Arbor, MI

University of Michigan-Ann Arbor offers 4 Neuroscience Degree programs. It's a large public university in a mid sized city. In 2015, 249 students graduated in the study area of Neuroscience with students earning 233 Bachelor's degrees, 8 Doctoral degrees, and 8 Master's degrees.

Columbia University in the City of New York offers 5 Neuroscience Degree programs. It's a large private university in a large city. In 2015, 88 students graduated in the study area of Neuroscience with students earning 56 Bachelor's degrees, 14 Certificates degrees, 11 Doctoral degrees, and 7 Master's degrees.

University of Pennsylvania offers 4 Neuroscience Degree programs. It's a large private university in a large city. In 2015, 119 students graduated in the study area of Neuroscience with students earning 98 Bachelor's degrees, 21 Doctoral degrees.

Duke University offers 4 Neuroscience Degree programs. It's a large private university in a mid sized city. In 2015, 99 students graduated in the study area of Neuroscience with students earning 88 Bachelor's degrees, 10 Doctoral degrees, and 1 Master's degree.

University of Southern California offers 4 Neuroscience Degree programs. It's a large private university in a large city. In 2015, 139 students graduated in the study area of Neuroscience with students earning 126 Bachelor's degrees, 12 Doctoral degrees, and 1 Master's degree.

Vanderbilt University offers 4 Neuroscience Degree programs. It's a large private university in a large city. In 2015, 108 students graduated in the study area of Neuroscience with students earning 91 Bachelor's degrees, 16 Doctoral degrees, and 1 Master's degree.

Brown University offers 4 Neuroscience Degree programs. It's a medium sized private university in a mid sized city. In 2015, 102 students graduated in the study area of Neuroscience with students earning 87 Bachelor's degrees, 11 Doctoral degrees, and 4 Master's degrees.

University of California-Los Angeles offers 3 Neuroscience Degree programs. It's a large public university in a large city. In 2015, 152 students graduated in the study area of Neuroscience with students earning 142 Bachelor's degrees, and 10 Doctoral degrees.

Johns Hopkins University offers 4 Neuroscience Degree programs. It's a large private university in a large city. In 2015, 105 students graduated in the study area of Neuroscience with students earning 91 Bachelor's degrees, 11 Doctoral degrees, and 3 Master's degrees.

Dartmouth College offers 3 Neuroscience Degree programs. It's a medium sized private university in a remote town. In 2015, 69 students graduated in the study area of Neuroscience with students earning 69 Bachelor's degrees.

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Best Colleges with Neuroscience Degrees - Universities.com

Neuroscience – Cold Spring Harbor Laboratory

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CSHL neuroscientists focus on understanding how neural connections in the brain translate into behavior. Their research provides insights into the circuitry underlying complex cognitive processes such as decision-making and attention, as well as developing tools to map circuit disruptions associated with neurological disorders, like Alzheimers disease, autism, schizophrenia and depression.

Neuroscience research at CSHL is centered on three broad themes: sensory processing, cognition, andmental disorders.Sensory processing research explores how sensory experiences, like sound, smell, and sight, are integrated with decision-making. The cognition group uses the tools ofmodern neuroscience (genetic, molecular, physiology and imaging) tostudy the neural circuitry that underlies attention, memory, and decision-making. Researchers also study cognitivedisorders, defining the genetic basis ofdiseases like autism and schizophrenia and identifying the neural circuits that are disrupted in these disorders. In addition, there is an effort to develop new anatomical methods to improve our understanding of brain circuits, connectivity, and function.

Much of the work is highly collaborative and interdisciplinary. Many neuroscientists apply physics, math, and engineering principles to the study of cognition, including research funded by theSwartz Foundation. TheStanley Center for Cognitive Genomicsintegrates genetics and neuroscience to form a dual-strategy aimed at improving the diagnosis and treatment of schizophrenia, bipolar disorder, depression and other cognitive disorders.

January 31, 2019

Weve all learned about math in school. For many of us, it calls to mind exercises like bisecting geometric shapes and cracking algebraic equations. But what does math have to do with researching the brain? Computational neuroscientists like Cold Spring Harbor Laboratory (CSHL) Assistant Professor Tatiana Engel use math to better understand how networks in...

January 25, 2019

Eve Marder, the Victor and Gwendolyn Beinfield Professor of Neuroscience at Brandeis University, has been awarded the National Academy of Sciences (NAS) Award in the Neurosciences. Dr. Marder is a member of the Cold Spring Harbor Laboratory (CSHL) Scientific Advisory Council, an external advisory group that advises CSHLs senior management on science matters. Dr. Marder...

January 18, 2019

Cold Spring Harbor, NY The ideal drug is one that only affects the exact cells and neurons it is designed to treat, without unwanted side effects. This concept is especially important when treating the delicate and complex human brain. Now, scientists at Cold Spring Harbor Laboratory have revealed a mechanism that could lead to...

January 18, 2019

On January 13th, local non-profit Austins Purpose donated $10,000 to fund Professor Hiro Furukawas neuroscience research at Cold Spring Harbor Laboratory (CSHL). Representatives from Austins Purpose presented a check to Diane Fagiola, CSHLs Senior Director of Philanthropy, at a communion breakfast hosted by the Columbiettes of the St. Regis Council of Knights of Columbus, in...

December 26, 2018

Its hard to have missed the acronym CRISPR this year! Headlines in the news have heralded game changing possibilities in biomedicine. Controversy and debate continue to sizzle worldwide among scientists and policymakers over the ethical implications of gene editing in humans. At Cold Spring Harbor Laboratory (CSHL), though, CRISPR isnt just about headlines. It is...

December 5, 2018

Cold Spring Harbor, NY How is it that a sound can send a chill down your spine? By observing individual brain cells of mice, scientists at Cold Spring Harbor Laboratory (CSHL) are understanding how a sound can incite fear. Investigator Bo Li focuses on a part of the mouse brain called the amygdala where...

October 31, 2018

Cold Spring Harbor, NY Is bigger really better? When it comes to sample sizes in experiments to understand decision-making, a Cold Spring Harbor Laboratory (CSHL) team found that testing more subjects in more trials is not only better, but necessary, to truly grasp what an individual is thinking. A horde of mice and half-a-million...

October 15, 2018

Join us for the next edition of Cocktails & Chromosomes, featuring computational neuroscientistTatiana Engel, Ph.D., an assistant professor at CSHL Our brains are doing math all the time math that makes it possible for us to see a movie, make coffee, or even to know who we are. Dr. Tatiana Engel will talk about...

October 2, 2018

Cold Spring Harbor Laboratory (CSHL) Associate Professor Florin Albeanu and Professor Alexei Koulakov have received the National Institutes of Health (NIH) Directors Transformative Research Award for an innovative neuroscience research project on the olfactory system, one of the basic senses that is still quite mysterious. The project will study how the brain interprets smell, an...

September 27, 2018

Data is crucial. But, without the proper tools to analyze it, data cannot be properly evaluated to reach credible conclusions. Cold Spring Harbor Laboratory (CSHL) Assistant Professor Tatiana Engel is helping build computational tools for data collected specifically from the brain, and has been awarded a Brain Research through Advancing Innovative Neurotechnologies (BRAIN) Initiative grant...

September 14, 2018

Cold Spring Harbor, NY Perfectly normal events can have disastrous consequences when they happen at the wrong time. Take, for example, a horse race, says Cold Spring Harbor Laboratory Professor Alea Mills. The action begins when the competitors are allowed to burst forth from the starting gate. But if a gate is broken, allowing...

August 16, 2018

Genetic fate-mapping technologies developed by (Cold Spring Harbor Laboratory) Professor Josh Huang and colleagues show in exquisite detail how an important part of the mammalian brainhere, a mouse brainself-assembles over a few short weeks during the embryonic period. In the sequence featured below, follow the emergence of the striatum, a brain area that enables information...

August 16, 2018

We think of ourselves as unique individuals, yet developmental biology reveals what all of us must have in common before our experiences even begin to differentiate us. Cold Spring Harbor Laboratory Professor Josh Huang and his team show in these images how a program that has evolved over eons and is imprinted in genes unfurls...

August 8, 2018

Anthony Zador, a Cold Spring Harbor Laboratory (CSHL) professor and the Alle Davis and Maxine Harrison Endowed Chair of Neurosciences, has been named a Gill Symposium Transformative Investigator for his work on MAPseq. The prize honors researchers who have made exceptional contributions to cellular or molecular neuroscience. MAPseq (Multiplexed Analysis of Projections by Sequencing) is...

June 29, 2018

Cold Spring Harbor Laboratorys Alex Vaughan was awarded the 2018 Alexandria LaunchLabs Seed Capital Prize for the CSHL spinoff company MapNeuro Inc. during the NYC Life Science Innovation Showcase, held in New York City on June 14, 2018. Valued at $100,000, the prize, meant to fund early-stage development companies, includes a scholarship to Alexandria LaunchLabs,...

June 25, 2018

Dhananjay Huilgol, a postdoctoral researcher in Professor Z. Josh Huangs lab, has been awarded one of Indias highest honors for young investigators. Huilgol has won the Indian National Science Academy (INSA) Young Scientist award for his doctoral research in the field of developmental neuroscience. During his time at the Tata Institute of Fundamental Research in...

June 6, 2018

Moving forward by moving backward more effectively Cold Spring Harbor, NY New technologies have been likened, famously, to magic. At first, even the few who understand how they work have a tendency to sit back and marvel. Soon, flaws and limitations are detected and the invention process begins again, resulting, almost always, in improvements....

May 29, 2018

Research suggests a possible target for future anti-anxiety drugs Cold Spring Harbor, NY Neuroscientists at Cold Spring Harbor Laboratory (CSHL) have identified a neural circuit in the amygdala, the brains seat of emotion processing, that gives rise to anxiety. Their insight has revealed the critical role of a molecule called dynorphin, which could serve...

May 25, 2018

Join us for the next edition of Cocktails & Chromosomes, featuring developmental neuroscientistJessica Tollkuhn, Ph.D., an assistant professor at CSHL Men are from Mars and women are from Venus? NOT QUITE Estrogen and testosterone drive mood, aggression, preferences and behavior in both males and females, but how? Dr. Jessica Tollkuhn will talk about howhormone surgesin...

May 11, 2018

Since 1890, Cold Spring Harbor Laboratory (CSHL) has consistently advanced the frontiers of research and education in biology. How we have come so far is remarkable, considering that Darwins theory of evolution and Mendels explanation of genetics were at the cutting edge little more than a century ago. Curiosity-driven research, innovation and risk-taking underlie our...

May 2, 2018

Please join us for the East Coast Film Premiere of theTianqiao & Chrissy Chen Institute(TCCI)s documentary,MINDS WIDE OPEN: Unlocking the potential of the human brain. A revolution in technology is helping scientists unlock the mysteries of the most complex object in the universe: the human brain. Created by Tianqiao Chen, Chrissy Luo and award-winning producer,...

April 27, 2018

At noon every Tuesday from September through June, scenes from a revolution in neuroscience are playing out at Cold Spring Harbor Laboratory. Week after week, over 100 scientists cram themselves into a ground-floor meeting room in the Beckman Laboratory. Its standing-room only as everyone in the Neuroscience Program settles in to hear details of the...

March 28, 2018

Cold Spring Harbor, NY Using a revolutionary new brain-mapping technology recently developed at Cold Spring Harbor Laboratory (CSHL), an international team of scientists led by Professor Anthony Zador have made a discovery that will force neuroscientists to rethink how areas of the cortex communicate with one another. The new technology, called MAPseq, allowed the...

December 28, 2017

CSHL Professor Bo Li and two collaborators at Oregon Health & Science University (OHSU) have been awarded a new grant under the BRAIN Initiative of the National Institutes of Health. The award of $5 million, apportioned over five years, supports research to better understand how paired structures called amygdalae, set deep in the brain, are...

December 11, 2017

In recognition of her efforts to promote and mentor women in neuroscience, Associate Professor Anne Churchland was honored with The Louise Hanson Marshall Special Recognition Award at the Society for Neurosciences 2017 Annual Meeting in November. Each year, the award goes to an individual who has significantly promoted the professional development of women in neuroscience...

November 22, 2017

What you see here is not a pointillist masterpiece. It is a rendering of the mouse brain, from above, formed by millions of colored dots. Like the famous canvases painted by post-Impressionist Georges Seurat, the triumph of this image is in the relation of the dots themselves. Each colored dot is an inhibitory neuron, and...

November 21, 2017

For neuroscientists, the brain presents an almost endless number of mysteries to be solved. Assistant Professor Tatiana Engel, the newest addition to CSHLs Swartz Center for Computational Neuroscience, is focused on the dynamics of neural circuits. She wants to understand the role of changing neural activity patterns in decision-making and attention. While earning her doctorate...

November 2, 2017

Cold Spring Harbor, NY One of the most hopeful discoveries of modern neuroscience is firm proof that the human brain is not static following birth. Rather, it is continually renewing itself, via a process called postnatal neurogenesisliterally, the birth of new neurons. It begins not long after birth and continues into old age. There is...

October 31, 2017

LabDish blog Tracking a personentails searching through their email, phone, and other means of communication to map outtheir network. To do this for a brain cell, more creativity is called for. After more than a century of investigation into the diverse cells of the brain, neuroscientists still are not sure what exactly makes one neuron...

October 23, 2017

Cold Spring Harbor, NY Our brains wire themselves up during development according to a series of remarkable genetic programs that have evolved over millions of years. But so much of our behavior is the product of things we learn only after we emerge from the womb. We arent born with instructions to avoid putting...

October 5, 2017

A multiyear project in the Brain Initiative, qBrain is already revealing the brain as never before Cold Spring Harbor, NY Neuroscientists at Cold Spring Harbor Laboratory (CSHL) have mobilized advanced imaging and computational methods to comprehensively mapcountthe total populations of specific types of cells throughout the mouse brain. In a study published today in...

October 2, 2017

Last month, the announcement of International Brain Laboratory (IBL) made headlines because of its unusual approach to a fundamental mystery of neuroscience: what happens in the brain when it makes a decision? Associate Professor Anne Churchland, who co-founded the IBL along with Professor Tony Zador, explains how it could help solve a problem in neuroscience....

September 21, 2017

Families of genes encoding proteins involved in communication across synapses define neurons by determining which cells they connect with and how they communicate Cold Spring Harbor, NY In a major step forward in research, scientists at Cold Spring Harbor Laboratory (CSHL) today publish in Cell a discovery about the molecular-genetic basis of neuronal cell...

August 21, 2017

Inhibitory chandelier cells receive and transmit information from different ensembles of excitatory cells in their cortical neighborhood Cold Spring Harbor, NY The brains astonishing anatomical complexity has been appreciated for over 100 years, when pioneers first trained microscopes on the profusion of branching structures that connect individual neurons. Even in the tiniest areas of...

August 1, 2017

Cold Spring Harbor, NY Neuroscientist Adam Kepecs of Cold Spring Harbor Laboratory (CSHL) has been selected to lead a new research project that is part of the US governments BRAIN Initiative, the National Science Foundation (NSF) announced today. Kepecs, a CSHL Professor, will work with colleagues to develop conceptual infrastructure for behavioral neuroscience research....

July 20, 2017

Opening the hormonal black box yields some surprises about sex Cold Spring Harbor, NY Researchers at Cold Spring Harbor Laboratory (CSHL) have opened a black box in the brain whose contents explain one of the remarkable yet mysterious facts of life. Its been known for decades that an event occurring on the very first...

May 16, 2017

LabDish blog Confidence is not just a feeling, according to neuroscientist Adam Kepecs. Finding the confidence-calculating circuitry in our brains has huge implications for the future of psychiatry. When someone asks you how confident you are about something, you probably dont offer an answer like 5 or some other number. Youre more likely to say...

March 27, 2017

Do genome-defending anti-transposon systems collapse in ALS patients? Stony Brook and Cold Spring Harbor, NY By inserting an amyotrophic lateral sclerosis (ALS)-linked human gene called TDP-43 into fruit flies, researchers at Stony Brook University and Cold Spring Harbor Laboratory (CSHL) discovered a potential role for transposons in the disease. Transposons, which are also called jumping...

March 13, 2017

LabDish blog Written by Annabel Romero Hernandez Memories may seem intangible, but many scientists are working to figure out how they are physically stored in the brain. To achieve this, well need to understand memories at the molecular level. When we talk about memories, its usually in the context of something precious, like a beloved...

January 4, 2017

Austin Wasielewski, born in May 2003, at first appeared to be a healthy, strong boy. About three months into his life his parents noticed his jerking motions and realized he wasnt meeting developmental goals. On Thanksgiving Day 2003, Austin had his first myoclonic seizure. Throughout his first eight years of life he would have up...

December 14, 2016

BasePairs podcast One in six people suffers from a mental disorder, and yet, compared to cancer and infectious disease, neuropsychiatric treatment options have barely improved in decades! Why is that? In this episode of Base Pairs, we talk to Stanford Professor Robert Malenka about the limitations that classic business practices place on modern drug development....

October 27, 2016

LabDish blog What appears to be a few elegant houses tucked in the woods by the harbor is actually an epicenter of ideas in biology, fromthe iconic Human Genome Projectin the late 1980s to the more down-to-earth subject of Lyme disease at this recent meeting. Maybe its no surprise that the Banbury Center has gained...

September 21, 2016

Cold Spring Harbor, NY Imagine if every time you got in your car, you fired it up, put it in drive, slammed on the gas, and didnt let up until you reached your destination. Now imagine every driver on the road did the same thing. It would be pile up after pile up. A...

August 19, 2016

MAPseq uses RNA sequencing to rapidly and inexpensively find the diverse destinations of thousands of neurons in a single experiment in a single animal Cold Spring Harbor, NY Neuroscientists today publish in Neuron details of a revolutionary new way of mapping the brain at the resolution of individual neurons, which they have successfully demonstrated...

June 1, 2016

LabDish blog Too many scientists become limited by the availability of expensive, sophisticated tools, according to CSHL Associate Professor Florin Albeanu. He hopes to change that by essentially teaching a DIY approach to neuroscience. Do-it-yourself (DIY) science evokes images of amateur scientists tinkering with test tubes in garages on the weekends. So, at first, the...

May 4, 2016

The brain produces feelings of confidence that inform decisions the same way statistics pulls patterns out of noisy data Cold Spring Harbor, NY The directions, which came via cell phone, were a little garbled, but as you understood them: Turn left at the 3rd light and go straight; the restaurant will be on your...

May 2, 2016

Cold Spring Harbor, NY Structural biologists at Cold Spring Harbor Laboratory (CSHL) and Janelia Research Campus/HHMI, have obtained snapshots of the activation of an important type of brain-cell receptor. Dysfunction of the receptor has been implicated in a range of neurological illnesses, including Alzheimers disease, Parkinsons disease, depression, seizure, schizophrenia, autism, and injuries related...

March 15, 2016

LabDish blog With the flick of a switch, neuroscientist Matt Kaufman can send out billions of extremely brief laser pulses that will help him understand how brains make decisions. Every time you decide to grab a coffee mug, your brain quickly performs an elaborate string of calculations: it visually recognizes the mug, chooses how you...

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Neuroscience - Cold Spring Harbor Laboratory

Neuroscience | College of Biological Sciences

Neuroscience majors learn abouthow complex animals, including humans, see, hear, move, thinkand feel, as well asabnormalities that cause diseases and mechanisms that underlie pain and addiction.

The goal of neuroscience is to understand the brain and behavior, how we perceive, move, think and remember. Important aspects of the study of behavior can be examined at the level of individual nerve cells, their properties and the ways they communicate with one another. It is also possible now to address these basic issues directly at the molecular level. Many aspects of the biological basis of behavior are studied by examining specific functions of nervous systems and the behavior they produce. The neuroscience major is designed to provide an introduction to these basic areas of investigation by emphasizing the interdisciplinary nature of the subject. The prepares undergraduates to pursue advanced studies in neuroscience, take a position in one of the many rapidly growing areas in the pharmaceutical, medical or biotechnology industries, or pursue a professional degree in medicine or psychology.

Director of Undergraduate Studies: Dr. Lorene Lanier |lanie002@umn.edu | 612-626-2399

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Neuroscience | College of Biological Sciences

Iowa Neuroscience Institute

Darwin Day 2019 (pt 1)

Friday, February 22, 2019

Iowa City Darwin Day is a grand celebration of science and its many contributions to humanity! As in previous years, this year we welcome a slate of world-renowned scientists who will share their research in a series of professional seminars and public talks over two days....

Friday, February 22, 2019

Iowa City Darwin Day is a grand celebration of science and its many contributions to humanity! As in previous years, this year we welcome a slate of world-renowned scientists who will share their research in a series of professional seminars and public talks over two days....

Thursday, February 28, 2019

The NINDS Clinical Trials Methodology Course (CTMC) is accepting applications for the 2019 cohort. The goal of CTMC is to help investigators develop scientifically rigorous, yet practical clinical trial protocols. The focus is on investigators who have not previously designed their own prospective, interventional clinical trials. ...

Friday, March 1, 2019, 12:00pm to 1:00pm

Yasmin Hurd, PhDDirector, Addiction Institute at Mount SinaiProfessor ofPharmacological Sciences, Neuroscience, and Psychiatry, Icahn School of Medicine at Mount Sinai UniversityTitle TBD

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Iowa Neuroscience Institute

Human Behavior and Evolution Society – Home – HBES

HBES is a society for all those studying the evolution of human behavior. Scientific perspectives range from evolutionary psychology to evolutionary anthropology and cultural evolution. The societys worldwide membership includes researchers from a range of disciplines in the social and biological sciences.

HBES hosts an annual conference that provides a forum exploring current research in the field. The conference offers invited plenary presentations from leading scientists.

The official journal of HBES is Evolution and Human Behavior, an interdisciplinary journal presenting research reports and theory in which evolutionary perspectives are brought to bear on the study of human behavior.

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Human Behavior and Evolution Society - Home - HBES

3datlas

ABOUT THE 3D ATLAS OF HUMAN EMBRYOLOGY

The 3D Atlas of Human Embryology comprises 14 user-friendly and interactive 3D-PDFsof all organ systems in real human embryos between stage 7 and 23 (15 till 60 days of development), and additional stacks of digital images of the original histological sectionsand annotated digital label files.

The atlas was created by students and embryologists of the Department of Anatomy, Embryology & Physiologyof the Academic Medical Center (AMC) in Amsterdam, the Netherlands and it is made freely available to the scientific community to facilitate veracious embryology education and research.

Click here to access the Science publication,hereto learn more about the project, hereto access the atlas content or feel free to donate.

Stage 13embryo(28-32days)

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3datlas

Genetics | The Institute for Creation Research

For over 150 years, Darwins hypothesis that all species share a common ancestor has dominated the creation-evolution debate. Surprisingly, when Darwin wrote his seminal work, he had no direct evidence for these genealogical relationships. Now, with online databases full of DNA-sequence information from thousands of species, the direct testing of Darwins hypothesis has finally commenced. More...

Authentic speciation is a process whereby organisms diversify within the boundaries of their gene pools, and this can result in variants with specific ecological adaptability. While it was once thought that this process was strictly facilitated by DNA sequence variability, Darwin's classic example of speciation in finches now includes a surprisingly strong epigenetic component as well. More...

One of the rapidly expanding and exciting research fields in molecular biology is the area of epigenetics. In the study of epigenetic modifications, scientists analyze DNA that has been modified in such a way that its chemistry is changed, but not the actual base pairs that make up the genetic code of the sequence. Its like a separate control code and system imposed upon and within the standard code of DNA sequence.

Because epigenetic modifications in the genome are related to gene expression, researchers have been using highly advanced technologies for comparing these differences in humans and chimps for regions of the genome that they both have in common. More... More...

Living things develop partly according to genetic instructions encoded on their DNA. The study of inheritance has widened the paradigms from genes to genomes, and now recent research indicates that critical biological information is carried from one generation to the next in systems additional to DNA, called epigenetic factors.

So, where did this information come from? More...

Genes could be thought of as brick molds, used to construct materials for building the physical structures of living organisms. They carry the codes to help make proteins, which then make up different cells that are combined together to form mega-structures called tissues.

New research has shed more light on how genes are used by cells to build the different tissues needed by complex living creatures. More...

Indiana University researchers discovered that certain genes used in developing horned beetle larvae are re-used later to make horns in their adult stage. The studys authors called the genes co-opted, indicating their belief that evolution decided to give them a secondary use. The authors suggestion that gene co-opting offers a possible explanation for the development of novel traits comes up short, however. More...

One of the past arguments for evidence of biological evolution in the genome has been the concept of pseudogenes. These DNA sequences were once thought to be the defunct remnants of genes, representing nothing but genomic fossils in the genomes of plants and animals. More...

Amazingly, scientists documented the activity of 2,082 distinct pseudogenes in the human genome whose aberrant levels of activity were directly associated with cancer-specific pathologies. More...

Proteins do most of the required metabolic tasks within each of the trillions of cells in the human body. However, only about four percent of human DNA contains coded instructions that specify proteins.

So what is the purpose of the remaining 96 or so percent? More...

A research team recently characterized a group of genes in humans and other mammals that not only defies evolutionary models but vindicates the Bibles prediction of the uniqueness of created kinds with distinct genetic features. More...

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Genetics | The Institute for Creation Research

Biology for Kids: Genetics – ducksters.com

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Genetics is the study of genes and heredity. It studies how living organisms, including people, inherit traits from their parents. Genetics is generally considered part of the science of biology. Scientists who study genetics are called geneticists.

What are genes?

Genes are the basic units of heredity. They consist of DNA and are part of a larger structure called the chromosome. Genes carry information that determine what characteristics are inherited from an organism's parents. They determine traits such as the color of your hair, how tall you are, and the color of your eyes.

What are chromosomes?

Chromosomes are tiny structures inside cells made from DNA and protein. The information inside chromosomes acts like a recipe that tells cells how to function. Humans have 23 pairs of chromosomes for a total of 46 chromosomes in each cell. Other plants and animals have different numbers of chromosomes. For example, a garden pea has 14 chromosomes and an elephant has 56.

What is DNA?

The actual instructions inside the chromosome is stored in a long molecule called DNA. DNA stands for deoxyribonucleic acid.

Gregor Mendel is considered the father of the science of genetics. Mendel was a scientist during the 1800s who studied inheritance by experimenting with pea plants in his garden. Through his experiments he was able to show patterns of inheritance and prove that traits were inherited from the parents.

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Biology for Kids: Genetics - ducksters.com