Index

Page numbers listed correspond to the print edition of this book. You can use your device’s search function to locate particular terms in the text.

Ablin, J.L., 159–60

Abraham, A., 57

academic skills

teaching skills for productive internal, self-directed processing in schools and, 55–56

ACC. see anterior middle cingulate cortex (ACC)

accommodation

described, 153

action(s)

in learning, 151–63

perception with, 154–58, 156n

in sociocultural context and implications for pedagogy, 158–61

understanding behavior in terms of, 152–54

action(s) of others

social processing and learning related to, 183–84

admiration for virtue

fMRI in study of, 168–69

as motivating social emotion, 171–72

neuroscientific perspectives on, 165–79. see also social emotions

adolescent(s)

need for quiet reflection and daydreaming, 45

adolescent boys living with half their brains, 113–50. see also brain and learning; high-functioning hemispherectomized adolescent boys living with half their brains

adult-onset prefrontal brain damage

childhood-onset brain damage vs., 33

affective neuroscience

advances in, 69–72

in education, 27–42

future directions in, 73–74

implications for educational theory, 69–75

insights about learning and teaching, 77–192

perspectives on design of digital learning technologies, 181–90

affective neuroscience principles

in designing better learning technologies, 186–88

affective prosody

in case study of two boys living with half their brains, 122–31, 126f, 128t

American Association of University Women, 12

Annenberg Learner Foundation, 12

anterior middle cingulate cortex (ACC), 47, 47f

assimilation

described, 153

attention

memory and, 87–88

autobiographical self

when brain is “at rest,” 51–52

awareness

bodily sensation and, 184–85

basic emotions

described, 166–67

types of, 166

Battro, A., 7, 113

BCI. see Brain and Creativity Institute (BCI)

Bechara, A., 93

behavior(s)

emotion in shaping future, 98

moral, 165

understanding in terms of perception, action, and their convergence, 152–54

behaviorism, 175

being human

neurobiology of, 182–85

biology

in shaping development, 80

biology, learning, and culture

interface of, 29

bodily sensation

awareness and, 184–85

body

mind and, 70, 183

body sensation

simulated, 38

brain(s)

case study of two boys living with half their, 113–50. see also brain and learning; high-functioning hemispherectomized adolescent boys living with half their brains

embodied, 182–83

emotional, 94

meaning making and, 58–60

motor planning in, 157

in support of emotional feelings, 25–76

brain, mind, and education, 8, 79–82. see also Mind-Brain-Education field

Brain and Creativity Institute (BCI), 11

at USC, 20

Brain and Creativity Institute (BCI) Fund, 12

brain and learning

affective prosody and emotion in, 122–31, 126f, 128t

building connections between, 131–40

case study of two boys living with half their brains, 113–50. see also high-functioning hemispherectomized adolescent boys living with half their brains

comparative case analysis within developmental and social framework, 125–31, 126f, 128t

emotion in, 137–40

insights for education, 143–44

intonation in, 135, 136f

from neuropsychological findings to educational implications, 140–45

overview of design, measures, research questions, and analyses related to, 126f

prosody in, 127–29, 128t, 132–37, 133f, 136f–37f

triangulating between socioemotional neuropsychological and developmental perspectives, 117–22

in what one is “unable to learn,” 122–31, 126f, 128t

brain “at rest”

mind function during, 50–52

brain-based education, 89

skepticism associated with, 81

brain damage

childhood-onset vs. adult-onset prefrontal, 33

prefrontal, 30–36. see also prefrontal brain damage

reasoning, decision making, and emotion in patients with, 30–36

brain function

DM of, 43–68. see also default mode (DM) of brain function

brain networks

complementary, 45–50, 47f. see also complementary brain networks

brain studies

relationship to studies of learning, 79–92. see also learning

Brooke (left hemispherectomized young man), 113-45, 151-54, 158-61

Bruer, J., 89

Bruner, J., 59

childhood-onset brain damage

adult-onset prefrontal brain damage vs., 33

children

need for time to play, 45

Christodoulou, J.A., 43

Christoff, K., 160

circumstances of others

social emotions about, 51–52

classroom learning

bringing emotions back into, 101–4

cognition

advanced, 35

aspects most heavily recruited in education, 37

defined, 186

emotion and, 34–36. see also emotion and cognition

information implementation and computation by computers vs. human, 185–86

cognitive development

reflexes in, 153

cognitive functioning

DM functioning in determination of, 49–50

cognitive learning

emotion in guiding, 96–97

cognitive models

incorporating nonconscious and biological processes into, 172–74

cognitive science

limitations of, 7

complementary brain networks

in cognitive functioning, 49–50

discovery of, 45–50, 47f

in socioemotional functioning, 48–49

complex emotional feelings

as active mental constructions, 19

computer(s)

information implementation and computation by, 185–86

limitations of, 7

conscious

emotional contributions to learning as, 97–98

constructive internal reflection

interdisciplinary research focus on, 58–60

context in language comprehension

tone vs., 127

contextually relevant skills

“mirror systems” in development and calling up of, 155–56

“convergence zones”

“mirror systems” as, 155, 155n, 158

creativity

developmental analysis of one child’s poetry, 107–12, 110f

neurobiological and evolutionary origins of, 107–12, 110f

“cross talk”

between DM regions, 49

cultural contexts

thinking and learning in, 183–84

culture, biology, and learning

interface of, 29

Damasio, A.R., 7, 11, 27, 93, 107, 154–55, 154n, 158, 165, 191

Damasio, H., 7, 11, 165

daydreaming

effects of inadequate opportunity for, 45

when brain is “at rest,” 51–52

Deci, E.L., 176

decision making

in brain-damaged patients, 30–36

emotion in, 35, 70

emotional signaling in normal and abnormal, 31–32

ethical, 35–36

decision making, social functioning, and moral reasoning

connections between, 28

default mode (DM) of brain function, 43–68

autobiographical self related to, 51–52

better long-term recall associated with greater activation of, 49

brain regions comprising, 46, 47f

in cognitive functioning, 49–50

complementary brain networks, 45–50, 47f. see also complementary brain networks

constructive internal reflection related to, 58–60

“cross talk” related to, 49

education related to, 55–56

excessive social media use effects on, 56–58

implications in human development and education, 43–68

induction of, 44

IQ scores affecting, 49

“looking in” system’s importance in, 54–58

mind function during, 50–52

research focus on, 59–60

self-awareness related to, 51–52

in socioemotional functioning, 48–49

spontaneous “looking in” during social learning, 52–54

delay in immediate gratification

self-control and, 59

Descartes, 70, 183

development

biology in shaping, 80

cognitive, 153

DM of brain function in, 43–68. see also default mode (DM) of brain function

emotion and cognition in, 35

skill. see skill development

developmental perspective

in case study of two boys living with half their brains, 117–22

Dewey, J., 152

digital learning experiences. see also digital learning technologies

described, 181

as social encounter, 181–82

digital learning technologies, 181–90. see also digital learning experiences

affective and social neuroscience perspectives on design of, 181–90

from social interactions to, 188–89

DM of brain function, 43–68. see also default mode (DM) of brain function

dmPFC. see dorsomedial prefrontal cortex (dmPFC)

DNI. see Dornsife Cognitive Neuroscience Imaging Center (DNI)

domain

defined, 89

domain-general processes

learning enabled by, 85–88

Dornsife Cognitive Neuroscience Imaging Center (DNI), 11

Dornsife College of Arts and Sciences, 11

dorsomedial prefrontal cortex (dmPFC), 47, 47f

“down time”

benefits of, 44

dyslexic readers

orthographic processing in, 85

rapid phonological processing and, 85

visual processing in, 85

education

affective neuroscience in, 27–42

brain-based, 89

cognitive aspects most heavily recruited in, 37

DM of brain function in, 43–68. see also default mode (DM) of brain function

emotions and, 72–73

preliminary connections to, 55–56

social neuroscience in, 27–42

education, mind, and brain, 79–82. see also Mind-Brain-Education field

educational insights

from study of high-functioning hemispherectomized adolescent boys living with half their brains, 143–44

educational research

on intrinsic motivation, 172–74

on motivation, 175–77

educational skills

specialized neural networks supporting, 83–85

educational theory

implications of affective and social neuroscience for, 69–75. see also affective neuroscience; social neuroscience

Ekman Test of Facial Affect Recognition

in high-functioning hemispherectomized adolescent boys living with half their brains, 125, 126f, 139–40

embodied brains

in social processing, 182–83

emotion(s)

actively managing social and emotional climate of classroom in, 103–4

admiration for virtue as, 165–79. see also admiration for virtue; social emotions

basic, 166–67

in brain and learning, 137–40

in brain-damaged patients, 30–36

in case study of two boys living with half their brains, 122–31, 126f, 128t

in classroom learning, 101–4

cognition and, 29, 34–36. see also emotion and cognition

components of, 20, 37

conscious vs. nonconscious, 97–98

in decision making, 35, 70

described, 18, 35, 186

development with experiences, 20

development with maturity, 20

in educational context, 72–73

educational implications of, 39–40

encouraging students to develop smart academic intuitions in, 102–3

fostering emotional connection to material in, 101–2

in guiding cognitive learning, 96–97

IGT in, 93, 95

impaired learning without, 99–101

intellectual, 19

in learning, 17–24, 93–105. see also emotion(s) in learning

learning without, 99–101

motivating, 165–79. see also motivating emotion

neural bases of, 166–67

neuromyths about, 94–101

neuroscience of, 27–42. see also affective neuroscience; social neuroscience

neuroscientific perspective on, 104

organizing role of, 140–42

in “rational” learning, 70

reasons for, 96–101

relevance to task at hand, 98–99

research on, 39–40

as rudder for thinking, 28 see also emotional rudder

in school setting, 72–73

in shaping future behavior, 98

as skills, 20

social, 18–19, 51–52, 165–79. see also social emotions

social processing and, 86–87

tests of, 129–31

in thinking, 18

what educators need to know about, 94

when brain is “at rest,” 51–52

emotion and cognition

connection between, 29, 34–36

neurological relationship between, 37–39, 38f

physiological and evolutionary account of, 34–36

emotion(s) in learning, 17–24, 93–105

role of. see 17-18

scientific understanding of influence of, 18

in thinking, 18

emotion-related processes

learning enabled by, 85–88

emotional brain

educators knowledge about, 94

emotional feelings

brain in support of, 25–76

complex, 19

emotional functioning

ethical decision making as, 35–36

introspection in, 44

morality as, 35–36

in relation to IQ, 31-32

emotional organizers

goals as, 151–63

emotional processing

nonlinguistic, 122–23

somatosensory systems in, 86–87

emotional rudder, 33

emotional signaling

in normal and abnormal decision making, 31–32

emotional thought

described, 37, 38f

toward evidence-based framework of, 36–39, 38f

empathy

associated with the anterior middle cingulate cortex (ACC), 47f

in relation to mirror systems, 156

episodic memory retrieval

when brain is “at rest,” 51–52

ethical decision making

as social and emotional functioning, 35–36

ethics

role of emotion in development of, 28

evidence-based framework

emotional thought and, 36–39, 38f

evolution

emotion and cognition in, 35, 38f

excessive social media use

effects of, 56–58

experience(s)

biology shaped by, 80

emotions developing with, 20

experiential education programs

introspection in, 44

Faeth, M., 93

“feeling”

“knowing” vs., 174

feeling(s)

emotional, 19, 25–76

feeling(s) of others

social processing and learning related to, 183–84

feeling(s) in learning, 27–42

Ferraro, R., 57

Fischer, K.W., 7, 11, 79, 84, 153

fMRI. see functional magnetic resonance imaging (fMRI)

Frankl, V.E., 59

Freud, S., 174–75

friendship(s)

among “high texting” youths, 57

texting related to, 57

Frith, C.D., 156

functional magnetic resonance imaging (fMRI)

in dispelling neuromyths about Mind-Brain-Education field, 83

in inducing admiration for virtue study, 168–69

Gardner, H., 7, 11

goal(s)

as sociocultural and emotional organizers of perception and action in learning, 151–63

gratification

immediate, 59

Harvard University Graduate School of Education (HUGSE), 8, 11

Hebb, D., 154n

Hebbian learning, 154n–55n

high-functioning hemispherectomized adolescent boys living with half their brains, 113–50

affective prosody and emotion in, 122–31, 126f, 128t

bridging educational gulf, 120–22

building connections between brain and learning in, 131–40

case study, 113–50, 115f

comparative case analysis within developmental and social framework, 125–31, 126f, 128t

Ekman Test of Facial Affect Recognition in, 125, 126f, 139–40

emotions in, 129–31

insights for education, 143–44

introduction, 113–17, 115f

mirror neurons and, 151–63. see also mirror neurons

from neuropsychological findings to educational implications, 140–45

overview of design, measures, research questions, and analyses related to, 126f

SIR interview by, 137–39, 141

triangulating between socioemotional neuropsychological and developmental perspectives, 117–22

understanding behavior in terms of perception, action, and their convergence, 152–54

“high texting” youths

friendships among, 57

lower positivity among, 56–57

hippocampus, 47, 47f

HUGSE. see Harvard University Graduate School of Education (HUGSE)

Hull, C.L., 174–75

human cognition

information implementation and computation by computers vs., 185–86

human nature, human nurture, 71–72

human subjectivity

fundamental importance of, 185–86

IGT. see Iowa Gambling Task (IGT)

IMBES. see International Mind, Brain, and Education Society (IMBES)

immediate gratification

delay in, 59

Immordino-Yang, M.H., 7–10, 27, 43, 69, 79, 84, 93, 107, 113, 151, 165, 181, 191–92

Analysis of Naturalistic Speech Production in the SIR of, 126f

Test of Prosodic Discrimination and Comprehension of, 126f

incest

evaluating morality of, 37–38

inferior parietal lobule (IPL), 47, 47f

information implementation and computation by computers

human cognition vs., 185–86

information processing

by humans and computers, 185–86

intellectual emotions, 19

“interacting creative minds,” 159

interdisciplinary research

on constructive internal reflection, 58–60

International Mind, Brain, and Education Society (IMBES), 12

interpersonal relationships

social emotions in, 165

intonation

in brain and learning, 135, 136f

in high-functioning hemispherectomized adolescent boys living with half their brains, 135, 136f

intrinsic motivation

described, 172

educational research on, 172–74

future research on, 173–74

introspection

in emotional functioning, 44

in experiential education programs, 44

in social functioning, 44

intuition

developing smart academic, 102–3

in learning, 93–105. see also skilled intuition

skilled, 93–105. see also skilled intuition

Iowa Gambling Task (IGT)

described, 96–101

on formative role of emotions in cognition and learning, 93, 95

IPL. see inferior parietal lobule (IPL)

IQ score

DM functioning during “rest” and “tasks” related to, 49

relation to emotional functioning, 31-32

Kegan, R., 59

Knight, C., 84

“knowing”

“feeling” vs., 174

Kohler, E., 157

Lakoff, G., 7

language(s)

emotion shaping key learning in, 131–40

tonal, 136–37

Lazzari, M., 11

learning

action in, 151–63

as active, emotionally mediated process, 145

affective neuroscience insights related to, 77–192

brain and, 113–50. see also high-functioning hemispherectomized adolescent boys living with half their brains

brain studies relationship to studies of, 79–92

case study of two boys living with half their brains, 117–22

classroom, 101–4

cognitive, 96–97

domain-general and emotion-related processes enabling, 85–88

emotion’s influence on, 17–24, 93–105, 131–40. see also emotion(s); emotion(s) in learning

feelings in, 27–42

goals as sociocultural and emotional organizers of perception and action in, 151–63

impaired, 99–101

neuropsychological strengths as bases for transformation in, 140–45

neuroscience bases of, 79–92. see also Mind-Brain-Education field

“procedures” of, 160

prosody as window for, 142–43

“rational,” 70

skilled intuition in, 93–105

social, 52–54

from social interactions to digital media for, 188–89

“solution-oriented,” 160

thinking and, 183–84

what one is “unable to learn,” 122–31, 126f, 128t

learning, culture, and biology

interface of, 29

learning from others

in skill development, 156

learning technologies

applying principles from affective and social neuroscience to design better, 186–88

digital, 181–90. see also digital learning experiences; digital learning technologies

long-term recall

DM activation and, 49

“looking in” system, 46, 48, 50

in healthy psychological development, 54–58

during social learning, 52–54

“looking out” system, 46, 47, 50

Lubbock, J., 43

math teaching

Singer’s model of, 161

mathematics

neural networks for, 84

maturity

emotions developing with, 20

meaning making

brain and, 58–60

memory(ies)

attention and, 87–88

when brain is “at rest,” 50–52

mental qualities and circumstances of others

social emotions about, 51–52

mental self

when brain is “at rest,” 51–52

Mezirow, J., 59

mind

when brain is “at rest,” 50–52

mind and body

traditional Western views of, 70, 183

Mind-Brain-Education field, 8, 79–82

challenges facing, 81

fMRI findings in dispelling neuromyths about, 83

graduate programs in, 81

importance of, 89

neuroimaging findings in dispelling neuromyths about, 82–83

neuromyths dispelled by, 82–83

in neuroscience, 80–81

new neuroscience methods for, 82–83

skepticism related to, 81, 94–95

specialized neural networks supporting, 83–85

mirror activity

in monkeys, 157

mirror neurons, 151–63. see also “mirror systems”

action and perception in sociocultural context and implications for pedagogy, 158–61

in sociocultural and emotional organizers of perception and action in learning, 51–63

“mirror systems,” 154. see also mirror neurons

as “convergence zones,” 155, 155n, 158

in development and calling up of contextually relevant skills, 155–56

neural architecture enabling, 154–55

“mirroring,” 87

described, 158

Mischel, W., 59

monkeys

mirror activity in, 157

moral behavior

social emotions and, 165

moral judgment tasks

when brain is “at rest,” 51–52

moral reasoning, social functioning, and decision making

connections between, 28

morality

of incest, 37–38

as social and emotional functioning, 35–36

motivating emotion

described, 165–66

neuroscientific perspectives on, 165–79. see also social emotions

motivating social emotion

admiration for virtue as, 171–72

motivation

educational research on, 175–77

intrinsic, 172–74

nonconscious processes in, 174–75

social emotions in, 165–79. see also social emotions

motor planning

in brain, 157

Mozart effect, 74, 95

Nelson, C.A., 86

neo-Piagetians

views of, 151–63

network(s). see also specific types, e.g., “task-positive” network

defined, 46

neural network(s)

defined, 89

educational skills supported by specialized, 83–85

for mathematics, 84

for reading, 84–85

neural systems for bodily sensation and awareness

interactions between, 184–85

neurobiology of being human, 182–85

neuroimaging

defined, 89

in dispelling neuromyths about Mind-Brain-Education field, 82–83

neurological convergence of perception and action, 154–58, 156n

neuromyth(s)

about emotional and skilled intuition in learning, 94–101

about Mind-Brain-Education field, 79–82

defined, 90

neuron(s)

mirror, 151–63. see also mirror neurons; “mirror systems”

neuropsychological perspective

of case study of two boys living with half their brains, 117–20

neuropsychological strengths

as bases for active transformation in learning, 140–45

neuroscience

affective. see affective neuroscience

bases of learning, 79–92. see also learning; Mind-Brain-Education field

of emotion and skilled intuition in learning, 104

of emotions, 27–42. see also affective neuroscience; emotion(s); social neuroscience

Mind-Brain-Education field in, 8, 79–82

social. see social neuroscience

Neuroscience Graduate Program, 11

neuroscientific evidence

in forming educational theory, 69–72

neuroscientific perspectives

on motivating emotion, 165–79. see also motivating emotion

Nico (right hemispherectomized young man), 113-45, 151-54, 158-61

Nietzsche, F., 174

nonconscious

emotional contributions to learning as, 97–98

nonconscious motivational processes

historical perspective on study of, 174–75

nonlinguistic emotional processing, 122–23

Organization of Behavior, 154n

orthographic processing

dyslexia and, 85

our bodies, our minds, 70–71

our cultures, our selves, 70–71

pedagogy

action and perception in sociocultural context and implications for, 158–61

Peirce, C.S., 152

perception

action with, 154–58, 156n

in learning, 151–63

in sociocultural context and implications for pedagogy, 158–61

understanding behavior in terms of, 152–54

personal memory retrieval

when brain is “at rest,” 51–52

Pew Research Center, 57

phonological processing

dyslexia and, 85

Piaget, J., 37, 152

Pintrich, P.R., 173

play

effects of inadequate opportunity for, 45

PMCs. see posteromedial cortices (PMCs)

Pocheptsova, A., 57

poetry

neurobiological and evolutionary origins of creativity via developmental analysis of one child’s, 107–12, 110f

portrait

Brooke’s 115f

Nico’s, 115f

positivity

excessive texting effects on, 56–57

Posner, M.I., 88

posteromedial cortices (PMCs), 47, 47f

prefrontal brain damage

adult-onset, 33

reasoning, decision making, and emotion in patients with, 30–36

prefrontal cortex

dorsomedial, 47, 47f

ventromedial, 37, 47, 47f

prefrontal lesion

social deficits in patients with, 30–32

“procedures” of learning, 160

prosody

affective, 122–31, 126f, 128t

in brain and learning, 127–29, 128t, 132–37, 133f, 136f–37f

described, 127–29, 128t

in tonal languages, 136–37

as window for social learning, 142–43

prospection(s)

when brain is “at rest,” 51–52

psychological development

opportunities and skills for “looking in” in, 54–58

rapid phonological processing

dyslexia and, 85

“rational” learning

emotion in, 70

reading

neural networks for, 84–85

“reality”

perception of, 88

reasoning

in brain-damaged patients, 30–36

moral, 28

recall

long-term, 49

reflection

constructive internal, 58–60

effects of inadequate opportunity for, 45

time of, 44

reflex(es)

in cognitive development, 153

relationship(s)

interpersonal, 165

research

on constructive internal reflection, 58–60

interdisciplinary, 58–60

on intrinsic motivation, 172–74

on motivation, 175–77

“rest”

DM functioning in people with higher IQs vs. average IQs during, 49

mind function when brain is at, 50–52

“resting” network, 46

Rizzolatti, G., 158

Rose, D., 7, 11

Rossier School of Education

at USC, 11, 12

Ryan, R.M., 176

school(s)

emotions at, 72–73

as social contexts, 72–73

self(ves)

autobiographical, 51–52

mental, 51–52

neural bases of, 166–67

when brain is “at rest,” 51–52

self-awareness

when brain is “at rest,” 51–52

social emotions leading to a sense of heightened, 165

self-control

delay in immediate gratification and, 59

self-determination theory, 173

Self-in-Relationships (SIR) interview, 126f

in high-functioning hemispherectomized adolescent boys living with half their brains, 137–39, 141

Immordino-Yang’s Analysis of Naturalistic Speech Production in, 126f

simulated body sensation

described, 38

Sinclair, L., 57

Singer, F.M., 161

Singh, V., 43, 181

SIR interview. see Self-in-Relationships (SIR) interview

skill(s)

contextually relevant, 155–56

defined, 90

educational, 83–85

emotion as, 20

skill development

features of, 156

learning from other people in, 156

networks supporting, 154–58, 156n

variability in, 152–54

skilled intuition

IGT in, 93, 95

in learning, 93–105

neuromyths about, 94–101

neuroscientific perspective on, 104

Snow, C., 12, 160

social contexts

schools as, 72–73

thinking and learning in, 183–84

social deficit(s)

in patients with prefrontal lesions, 30–32

social emotion(s), 18–19

admiration for virtue as, 168–72

interactions between neural systems for bodily sensation and awareness in, 184–85

in interpersonal relationships and moral behavior, 165

motivating, 165–79

neural bases of, 166–67

neuroscientific perspectives on, 165–79

social emotions about others’ mental qualities and circumstances

when brain is “at rest,” 51–52

social encounter(s)

digital learning experiences as, 181–82

social functioning

ethical decision making as, 35–36

introspection in, 44

morality as, 35–36

social functioning, decision making, and moral reasoning

connections between, 28

social interactions

to digital media for learning, 188–89

social learning

spontaneous “looking in” during, 52–54

social media

excessive use of, 56–58

social neuroscience

advances in, 69–72

in education, 27–42

future directions in, 73–74

implications for educational theory, 69–75

perspectives on design of digital learning technologies, 181–90

social neuroscience principles

in designing better learning technologies, 186–88

social processing

embodied brains in, 182–83

emotion and, 86–87

social processing and learning

other people’s feelings and actions associated with, 183–84

social texting

effects of excessive, 56–58

sociocultural context

action and perception in, 158–61

sociocultural organizers

goals as, 151–63

socioemotional functioning

DM functioning in determination of, 48–49

socioemotional perspective

of case study of two boys living with half their brains, 117–22

socioemotional well-being

teaching skills for productive internal, self-directed processing in schools and, 55–56

“solution-oriented” learning, 160

somatic marker(s), 93

somatic marker hypothesis

Damasio’s, 93

somatosensory systems

in emotional processing, 86–87

Spencer Foundation, 12

Steenbeek, H., 159–60

subjectivity

fundamental importance of, 185–86

Sylvan, L., 165

system(s)

defined, 46

“task(s)”

moral judgment, 51–52

task at hand

emotion relevant to, 98–99

“task negative” network, 46

“task positive” network, 46

teaching

affective neuroscience insights related to, 77–192

technology

effect on development, 56-58

designers, 181-82

texting

effects of excessive, 56–58

friendships related to, 57

The Mind’s New Science, 7

The Use of Life, 43

thinking

emotions influence on, 18

thinking and learning

in social and cultural contexts, 183–84

thought

emotional, 36–39, 38f

tonal languages

prosody in, 136–37

tone

context vs., 127

transformation in learning

neuropsychological strengths as bases for, 140–45

Trapnell, P., 57

Umiltà, M.A., 157

“unable to learn”

learning what one is, 122–31, 126f, 128t

Universal Design for Learning, 161

University of Southern California (USC)

BCI at, 20

Provost’s Office of, 12

Rossier School of Education at, 11, 12

USC. see University of Southern California (USC)

van Geert, P., 159–60

ventromedial prefrontal cortex (vmPFC), 47, 47f

damage to, 30

virtue

inducing admiration for, 165–79. see also admiration for virtue; social emotions

visual processing

dyslexia and, 85

vmPFC. see ventromedial prefrontal cortex (vmPFC)

von Helmholtz, H., 174

Vygotsky, L., 34

well-being

socioemotional, 55–56

Yang, N.M-M., 107