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Flow States and Student Engagement in the Classroom
David Shernoff, Ph.D.
Wisconsin Center for Education Research
University of Wisconsin - Madison
Statement to the
California State Assembly Education Committee
State Capitol February 27, 2002
Introduction - Experience and Role as Witness.
My name is Dr. David Shernoff. I am presently
serving a post-doctoral position as a research
associate at the University of Wisconsin - Madison.
I received my Ph.D. from the University of Chicago,
where my doctoral advisor was Dr. Mihaly Csikszentmihalyi,
a renowned researcher and best-selling author
in the psychology of subjective experience. In
my own research, I have applied Csikszentmihalyi's
method and theory to educational contexts. I have
authored numerous papers on student engagement
that have been published as scholarly articles
and book chapters, as well as presented at professional
conferences. Prior to my Ph.D. program, I received
a Masters degree at the Harvard School of Education
and a Bachelors degree at Cornell University.
I have also been a teacher of diverse populations,
and recently authored a book about teaching.
I believe that my primary role as a witness is
to represent students - more specifically, high
school students' perceptions of schooling and
instruction. All of the data and findings I will
be presenting come from only one source: student's
direct reports of their learning and schooling
experiences, both by brief surveys of subjective
experience during random moments in classrooms,
as well as in depth interviews about students'
schooling experiences. All of the findings I will
report come from my own or Dr. Csikszentmihayi's
empirical research findings. I will also be reporting
only findings with strong statistical as well
as practical significance.
Within the general topic of student engagement
in classrooms, I will present on three main subtopics:
1) The status or extent of student engagement
in public high schools (i.e., are students normally
engaged in school?) , 2) What are the factors
affecting or influencing student engagement (i.e.,
when do students become engaged?), and 3) How
is student engagement related to short-term and
long-term educational outcomes (i.e., To what
does student engagement lead?).
Definition/Conceptualization of Student Engagement.
The theoretical grounding point for my conceptualization
of student engagement is based on Dr. Csikszentmihalyi's
conception of optimal experience or "flow"
(Csikszentmihalyi, 1990, 1997; Csikszentmihalyi
& Csikszentmihalyi, 1988; Csikszentmihalyi
& Nakamura, 1989; Csikszentmihalyi, Rathunde,
& Whalen, 1993). Flow is a state of mind brought
on by intense involvement in an activity, promoting
growth as individuals exercise and develop more
developed skills to meet increasingly complex
challenges. Flow has been described as operating
concurrently with clear goals and feedback on
progress; a single-minded focus of attention;
increased concentration; a break with awareness
of time and the self; and a balance between the
challenges of an activity and the skills required
to meet them. As a state of total immersion, flow
is commonly reported during recreational and athletic
activities (as when "being in the zone"
in sports), but can also promote optimal learning
experiences in educational contexts.
In my research, I define student engagement as
the combination of three common facets of flow
experiences and optimal motivation to learn: concentration
(e.g., on specific problems), interest (e.g.,
for new knowledge), and enjoyment (e.g., for the
process of learning). In educational contexts,
concentration or deep absorption in activities
can promote optimal learning experiences - a phenomenon
Maria Montessori recognized as the cornerstone
of normal and healthy child development (Montessori,
1964, 1967, 1972). Interest influences not only
the objects of attention, but also the objects
of recognition, memorization, and analysis (Renninger
& Wozniak, 1985). In a meta-analysis 56 studies
(Winteler, (Schiefele, Krapp, & Winteler,
1992), interest was found to be positively related
to achievement. Studies have also demonstrated
that enjoyment while performing tasks is related
to creativity (Amabile, 1996) and academic achievement
(Heine, 1997; Nakamura, 1988). In the long run,
individuals who have developed their talent and
creativity are those who follow their sense of
enjoyment in chosen activities (Csikszentmihalyi,
1996; Csikszentmihalyi et al., 1993). Since students
do not always experience enjoyment at the same
time they experience concentration, and visa-versa,
this conceptualization of engagement depends on
all three elements working in concert, as during
a flow experience.
Method and Data Source
How do we know if students are concentrating,
interested, or enjoying their activities? In our
research, we simply asked students to rate their
own subjective states during instructional activities.
Most of the data presented here was collected
using a method developed by Dr. Csikszentmihalyi
called the Experience Sampling Method or ESM.
To carry out the ESM, pre-programmed wristwatches
signal the sampled students randomly eight times
throughout a day over the course of a normal week.
Students are then asked to fill out a one-page
self-report form (ESF) each time they were signaled.
The ESM self-report form (ESF) asks students where
they are and what they are doing at the exact
moment of the beep, and also contains several
items measured pertaining to one's subjective
experience on a Likert scale from 0 (low) to 9
(high) (e.g., "How well were you concentrating?).
The ESF may be found in Appendix A, and a fuller
list of the variables frequently used in this
study and how they were measured is provided in
Table 1. In addition to the ESM data, I also analyzed
in-depth, semi-structured interviews students
provided about schooling and how it relates to
their future goals.
In a series of studies on student engagement (Shernoff,
2001a; Shernoff, 2001b, Shernoff & Csikszentmihalyi,
2000; Shernoff, Csikszentmihalyi, & Shernoff,
in press; Shernoff & Hoogstra, 2001; Shernoff,
Knauth, & Makris, 2000), colleagues and I
analyzed both ESM and interview data from The
Sloan Study of Youth and Social Development (SSYSD),
a nationally representative, longitudinal study
which investigated how students think about their
lives in relationship to the future (Csikszentmihalyi
& Schneider, 2000). The study collected data
in three waves: 1992-1993 (Year 1), 1994-1995
(Year 3), and 1996-1997 (Year 5). Twelve research
sites across the U.S. were selected for the study.
Sites were widely distributed geographically and
differed in the level of urbanization, racial
and ethnic composition, labor force composition,
and economic stability. The studies on student
engagement selectively utilized a subsample of
the SSYSD consisting of 526 tenth and twelfth
grade students from three separate cohorts in
the 1990s. The sample was approximately 62% female
and 38% male; 16% African American, 8% Asian,
10% Hispanic, and 64% Caucasian; 7% low income;
15% working class; 37% middle class; 27% upper-middle
class; and 14% upper class (The breakdown of race/ethnicity
does not total to 100% due to missing data). A
response bias occurred under-representing males,
Hispanics and low-income students compared to
national demographics. I have analyzed approximately
3,630 ESM responses given in a classroom context
for the purpose of studying student engagement.
Further details concerning the sampling design
and procedures of the full-scale study can be
found in Csikszentmihalyi & Schneider (2000).
Findings: Are Public High School Students
Engaged?
The stereotype of students in American high schools
is that of being bored, staring out classroom
windows, and counting the seconds for the bell
to ring. Is this stereotype true? Our research
provides evidence that high school students are
indeed more bored and less engaged while in public
classrooms than they are otherwise. By using individually
normed scores, each student's ESM scores can be
viewed in relation to his or her own average.
In other words, a score of 0 is each student's
own average throughout an entire week. Any score
above a 0 is above that student's own average
for the week reflected in standard deviations,
and any score below 0 is below that student's
own average. For example, a score of -1 on the
variable concentration means that the student's
concentration in classrooms was one standard deviation
below his or her own average for the week while
in classrooms. Examining the average scores for
our entire sample can tell us how American students
felt in classrooms compared to when they are not
in them. These averages can be viewed in Table
2. Student's average score on engagement is negative,
indicating that students are less engaged in classrooms
than elsewhere. In fact, students' enjoyment while
in class is over one quarter of a standard deviation
below their average in other contexts, suggesting
students experience little enjoyment while in
classrooms. Students also indicate being less
interested in what they are doing while in class.
Student's overall mood and self-esteem also appear
to be negative while in classrooms. Interestingly,
students do appear to concentrate harder while
in class than elsewhere, suggesting that concentration
may not be related to students' perception of
their affect.
While approximately one third of the overall variation
in student engagement is among different students,
nearly two thirds of that variation is among learning
environments, as the same students move from one
activity to another over the course of a typical
week.
Findings: When Do Students Become Engaged
in Classrooms?
Students pay more attention and concentrate harder
when they are challenged. As shown in Figure 1,
students concentrate harder, are more interested,
and are more engaged overall when they are challenged.
In fact, students' engagement is below average
in low challenge situations, but above average
in high challenge situations. These findings suggest
that many students may be bored because they find
class work too easy, and that more cognitively
complex and challenging class work engages students
more deeply. However, high challenge is also associated
with lower enjoyment and self-esteem. Even though
challenging tasks may increase students' focus,
they may also provoke unpleasant worry about the
negative consequences of unsuccessful completion,
as with test anxiety. Such negative emotions arise
most likely when the task is too difficult.
Students experience greater enjoyment, motivation,
self-esteem, and overall engagement when they
can actively demonstrate their skills and perceive
them to be high. As illustrated in Figure 2, students
report greater self-esteem, motivation, enjoyment
and overall engagement when they perceive their
skills to be high rather than low. The same is
true when students consider themselves to be active
and in control, as with activities in which they
freely demonstrate their skills. This suggests
that the perception of competence and how it relates
to perceived chances of success contributes to
student's motivation and sense of self-worth.
Students are optimally engaged when the level
of challenge is a good match for students' skills
such that perceived challenges and skills are
both high and in balance. Dr. Csikszentmihalyi's
empirically supported theory of flow holds that
the experience in any activity may be optimized
when a person feels that both challenges and skills
are higher than usual and are relatively in balance
((Carli, Fave, & Massimini, 1988; Csikszentmihalyi
et al., 1993; Massimini & Massimo, 1988).
In addition, various ratios of challenges and
skills are predicted to lead to different qualities
of experience (Csikszentmihalyi & Nakamura,
1989), as illustrated in Figure 3. When challenges
and skills are both low, one is likely to feel
apathetic. When challenges are high and skills
are low, anxiety may be experienced. When challenges
are low and skills are high, then one is likely
to experience relaxation. When challenges and
skills are both high, one is more likely to experience
flow. True to the theory, Figure 4 and Figure
5 illustrate that student engagement, concentration,
and attention in classrooms is optimized by an
appropriate balance between challenge and skills.
"Appropriate" may be taken to mean,
"offering the prospect of success with reasonable
effort" (Brophy, 1983). Optimally engaging
activities are neither trivially simple nor impossibly
hard. The right match between challenge and skills
should lead to optimum motivation, and is related
to the quality of pupil's learning experiences.
Students are more engaged, particularly in terms
of concentration and interest, when instruction
is perceived as relevant and meaningful to their
lives. As illustrated in Figure 6, high school
students' interest, concentration and overall
engagement is above average and significantly
higher when students indicate that instruction
is important to themselves and their future goals.
When instruction is found to be less relevant,
students are less engaged than average. Such findings
suggest that students are more likely to become
engaged with authentic academic work that intellectually
involves them in a process of meaningful inquiry
to solve problems with relevance in the world
beyond the classroom. Overall, students' attention
and concentration is most influenced by two factors:
the challenge and relevance of instruction.
Students are more engaged in group and individual
work than while listening to a lecture, watching
TV or a video, or while taking a test or quiz.
As illustrated in Figure 7, students reported
higher engagement during group work and individual
work than while watching television or video,
listening to their teacher lecture, or while taking
a test or quiz. As can be seen in Figure 8, students
report higher concentration, enjoyment, and motivation
when involved in individual or group work as compared
to listening to a lecture or watching TV or video.
While taking a test, students concentrate harder
than most other common classroom activities, but
they enjoy it less than most other activities.
Overall, students appear more engaged during instructional
methods that present opportunities for action
and to demonstrate their skills. They appear to
be less engaged when passive recipients of a general
body of information transmitted to the entire
class, or in activities that are controlled exclusively
by the teacher. Taking tests or quizzed appears
to be a special case in which students report
extremely high levels of concentration and importance,
but extremely low levels of enjoyment and motivation.
Students are significantly more engaged in their
non-academic courses than their academic ones.
By asking students where they are at the time
they are beeped, the ESM allows a comparison of
student engagement across academic and non-academic
subjects. A ranking of school subjects by student
engagement is presented in Table 3. Students report
being the most engaged in art, computer science
and vocational education, the three non-academic
subjects examined. They report lower engagement
in social studies/science, English, science, foreign
language, history, and math. While students find
their academic courses more challenging, they
report higher enjoyment, interest, and motivation
in their non-academic classes. This finding may
be partially explained by the differences between
subjects with respect to allocation of time using
various instructional formats, as presented in
Table 4. For example, students spend much more
time engaged in individual work in their non-academic
classes, and much more time listening to lecture
in their traditional, academic ones. Overall,
students spend more time in activities in which
they report being more engaged during their non-academic
classes, and more time in activities in which
they report being less engaged during their academic
ones (see Table 5). Thus, non-academic classes
such as art appear to emphasize the momentary
rewards of direct interaction, while academic
classes may be perceived as serious, formal, and
directive, but often dull and devoid of pleasure.
Overall, studies on student engagement suggest
that traditional academic subjects would benefit
by rethinking their pedagogical strategies in
order to allow students a better balance between
challenges and skills, as well as higher levels
of activity and control.
Findings: The Relationship Between Student
Engagement and Academic Outcome.
There is a significant relationship between attention
and short-term performance, but only a small and
insignificant relationship between student engagement
and short-term performance. The later is explained
in terms of the undermining effects of evaluation
on students motivational orientation. I have analyzed
the relationship between student engagement and
short-term performance as measured by students'
self-reported grades, both within various school
subjects as well as overall. While there is a
significant relationship between attention and
short-term performance in math, science, and English,
the relationship between student engagement and
self-reported grades is small, insignificant,
and in some cases, slightly negative. In other
words, attention and concentration are related
to short-term performance, while enjoyment, interest,
and motivation are only weakly or negatively related.
While there may be multiple interpretations to
the second part of this finding, the leading ones
that are most well established by the research
literature point to the effects of tests, grades,
and evaluation on goal and motivational orientations.
Intrinsic motivation and engagement are facilitated
by a task-involving orientation, but impeded by
a performance or ego orientation (Maehr &
Nicholls, 1980; Nicholls, 1984). Therefore, strong
concerns or an overemphasis on performance may
also undermine engagement with instruction, especially
interest and enjoyment experienced in the moment.
A recent meta-analysis of 128 studies concluded
that performance-contingent rewards undermined
self-reported interest and task enjoyment (Deci,
Koestner, & Ryan, 1999). More specifically,
external evaluation and emphasis on social comparisons
appears to have negative consequences on students'
interest (Boggiano, Main, & Katz, 1988; Deci
& Ryan, 1985), their pursuit of challenging
tasks (Elliott & Dweck, 1988), and their use
of learning strategies (Ames, 1984). The pervasiveness
of evaluation makes it difficult to focus on learning
(Covington and Beery, (Covington & Beery,
1976). Students quickly adopt the mind-set that
what is not evaluated is not worth learning, even
topics arousing natural curiosity before evaluation
or rewards "overjustified" engagement
in learning (an effect known as "the overjustification
hypothesis," Lepper and Greene, 1978).
The qualitative analyses I have performed on students'
in-depth interviews of their schooling and motivation
supports the above explanation. Three patterns
emerged when comparing students exhibiting high
engagement in classrooms as measured by the ESM
method to those exhibiting low engagement: i)
Use of free time: Highly engaged students commented
more frequently on their involvements with athletics,
work, specific activities with friends, and home
responsibilities compared to disengaged students,
who spoke more frequently about "hanging
out" with their friends. (ii) Clear Goals:
highly engaged students were more likely to develop
clear goals for the future related to their interests,
in contrast to disengaged students, who were more
frequently uncertain about their future goals.
(iii) Intrinsic vs. extrinsic motivation: Highly
engaged students were more likely to discuss school
performance in terms of enjoyment of learning
activities and reaching their future goals; in
contrast, disengaged students appeared more oriented
towards receiving good grades as an end in itself.
For example, compare the statements of an engaged
student to that of a non-engaged student:
"(Why do you want to be an astronaut?) Cause
I've always been interested in like the space
program and stuff
.Yeah, I've always like,
I mean like always reading books and I've always
been interested in like the space program and
(Mm
hm.)
I mean I'm sure it goes in with like
science again
"
(Student A, High Engagement)
"Well, I was thinking, uh, I was thinking
of competitively about, I should write better
than some people. Like English
I want to
be better than the other person (inaudible) for
me to be as best I can
That doesn't really
sound very well, nice, but
I, it just seems
like I can. I have to be
best at everything
And I, I'm like the most ambitious person you'll
ever know. (Um hum.)
Seriously, I think I'll,
I'll turn in eventually into one of those greedy
people. (Um hum.) Because it seems like when,
when people have rule and like very much power,
they just
turn into some kind of big monster
I
just want to be so rich. It's just
sickening"
(Student B, Low Engagement)
I would like to note that while Student A is
poised to be a more engaged learner in the long
run due to his intrinsic interest in science,
student B is actually more likely to study harder
for a better grade in the short term. Hence, there
is a weak and sometimes even negative relationship
between grades and engagement.
There is a positive and significant relationship
between student engagement and continuing motivation
in the domain of science, as well as between student
engagement and long-term performance. In a follow-up
study to the Sloan study funded by the National
Institute on Postsecondary Education, Libraries,
and Lifelong Learning, I tested whether students
reporting high engagement in math and science
classes in high school were more likely to continue
their interest in those subjects two years later
once in college, after accounting for student
background characteristics including present performance.
The measure for continuing motivation was the
choice to major in a science-related field in
college among students reporting high engagement
in high school science class, and the choice of
a math-related major among students exhibiting
high engagement in high school math class. Engagement
was a significant predictor of continuing motivation
in science. Concentration, enjoyment, and interest
in high school science class all predicted the
choice of a science related major in college (see
Table 6).
I also tested whether student engagement among
that same sample of math and science student was
related to performance in college two years later
as measured by self-reported grades, again accounting
for a variety of student background characteristics
including present grades. Not only was student
engagement a significant predictor of long-term
performance in college, particularly in terms
of interest and enjoyment (see Table 7), but it
was a stronger predictor than the other variables
in the statistical model including present grades.
In other words, how much interest and enjoyment
students reported at random moments in high school
math and science classes was a stronger predictor
of college grades than high school grades. Unlike
short-term performance, attention in high school
classes was not as strongly related to either
long-term continuing interest or performance.
These findings suggest that engagement with school
learning can have an important influence on educational
outcomes. However, those outcomes are not necessarily
the ones receiving the most attention. While the
field of education has been preoccupied with short-term
achievement and grades, this research suggests
that engagement may operate in subtle ways that
has important, long-term effects on students'
intellectual and professional development. It
appears that enjoyment, interest and other aspects
of engagement may provide the foundation for subsequent
learning and career development.
Conclusion
Research on student engagement suggests that students
are less engaged than usual while in public high
school classrooms, particularly in their academic
classes. Classes and activities that have the
greatest probability of engaging students both
in the short-term and the long term are sufficiently
"complex" in that they both demand attentive
concentration as well as invite immediate enjoyment
and interest. The hopeful result of such an educational
approach is psychological complexity, whereby
students are motivated by the immediate enjoyment
of learning as well building the skills necessary
to reach their future goals.
There appears to be two separate processes related
to student engagement.. The experience of challenge
and relevance have strong effects particularly
on students' concentration, interest, and attention.
I refer to this process as "academic intensity."
Experiencing high skill, control, and activity
level are associated with significant increases
in mood, enjoyment, esteem, and intrinsic motivation.
I refer to this process as "positive emotional
response," which is distinguished from the
primarily cognitive nature of academic intensity.
Both academic intensity and a positive emotional
response appear to be an integral part of optimal
engagement in classrooms. It is apparent, however,
from the studies I have conducted as well as other
studies (e.g., Csikszentmihalyi et al., 1993),
that both processes frequently do not operate
together during public high school instruction.
For example, students find taking a test or a
quiz, or many activities in math class, to be
very challenging and demanding of concentration,
but they frequently do not enjoy the experience.
Students enjoy watching television or video, or
attending art class, but they often feel these
experiences lack challenge and relevance. It appears
that some activities can combine both aspects
of engagement, such as individual work in computer
science class or a group lab activity in science
class; whereas others appear to be lacking in
both aspects, such as listening to the teacher
lecture or the experience of history class compared
to many others.
A model of these processes and how they relate
to educational outcomes is presented in Figure
7. Academic intensity appears to be more related
to short-term performance than positive emotions.
For example, attention appears to have a stronger
relationship with short-term performance than
many of the more emotionally based factors On
the other hand, the emotional side of engagement,
particularly students' enjoyment and interest,
appears to be a strong predictor of long-term
performance and motivation.
The observation of these processes imply that
activities which are both academically intense
and foster positive emotions are more likely to
engage students both in the short term and in
the long term. Ideally, the schools and teachers
of the future will develop activities that are
more complex in that they are challenging and
relevant, and yet also allow students to feel
confident in their ability and in control; exact
concentration but also provide enjoyment; are
intrinsically satisfying in the short-term, as
well as build a foundation of skills and interest
for the future; and involve both intellect and
feeling; and that are both work-like and play-like
- which is to say, activities that engage.
Table 2
Z-Scores of Experiential Variables in High
School Classrooms
|
ESM
Variables
|
Mean
|
SD
|
Minimum
|
Maximum
|
N
|
|
Engagement
|
-.0686
|
.7481
|
-2.92
|
2.05
|
3418
|
|
Interest
|
-.0407
|
.9501
|
-3.11
|
2.77
|
3462
|
|
Concentration
|
.1700
|
.9812
|
-4.36
|
3.57
|
3545
|
|
Enjoyment
|
-.2851
|
.9745
|
-4.91
|
2.71
|
3515
|
Table 4
Percentage of Time Devoted to Instructional
Methods by School Subject
| School
Subject |
Lecture
N=382 |
TV/Videos
N=129 |
Test/Quiz
N=226 |
Individual
work
N=411 |
Groupwork
n=104 |
Totala |
| Mathematics |
23.7% |
1.5% |
21.1% |
24.1% |
4.4% |
74.8% |
| English |
22.7% |
6.3% |
9.9% |
26.8% |
4.1% |
69.8% |
| Science |
19.4% |
4.0% |
15.4% |
15.1% |
12.7% |
66.6% |
| Foreign
Language |
22.3% |
9.1% |
13.7% |
26.3% |
4.6% |
76.0% |
| History
|
31.2% |
8.7% |
10.9% |
13.8% |
5.8% |
70.4% |
| Social
Studies/Sci. |
22.7% |
10.6% |
10.1% |
17.9% |
2.4% |
63.7% |
| Computer
Science |
6.1% |
3.0% |
6.1% |
60.6% |
0.0% |
75.8% |
| Art
|
17.3% |
8.0% |
2.7% |
44.0% |
5.3% |
77.3% |
| Vocational
Ed. |
20.0% |
15.2% |
12.4% |
35.2% |
4.8% |
87.6% |
| Combined |
21.9% |
7.4% |
13.1% |
23.6% |
5.9% |
71.9% |
a Percentages do not total
to 100% due to missing data and alternative instructional
methods not reported here. (Only five of the most
common instructional methods are reported here.)
?2 /F-test = 155.31, p < .001
Table 5
The Percentage of Time Spent in High Engagement
Instructional Methods by School Subject
Math
N=582 |
English
N=710 |
Science
N=625 |
Foreign Language
N=358 |
History
N=225 |
| (7) 51.9% |
(3) 55.3% |
(6) 52.3% |
(5) 54.3% |
(9) 40.6% |
Social
Studies
N=384 |
Computer
Science
N=97 |
Art
N=302 |
Vocational
Ed.
N=248 |
X2/
F Statistic |
| (8)
44.9% |
(1)
69.7% |
(2)
60.0% |
(4)
55.2% |
19.88*** |
Note. Sample sizes reflect the number of ESM
responses, not individuals, in each activity.
Numbers denote a ranking of scores. * p < .05
** p < .01 *** p < .001
aHigh engagement instructional methods refers
to Individual and Group work as distinguished
from test/quiz, Lecture, and TV/Video. This distinction
was based on previous analyses.
Table 6
Controlled Logistic Regression
Coefficients Predicting Choice of Science Major
in College With Student Engagement and its Components
| Variable
|
Coefficient |
| Engagement |
.698** |
| Interest |
.631** |
| Concentration |
.362 |
| Enjoyment |
8.78** |
| Attention |
.265 |
Note: Coefficient predicting selection of a college
major in science from motivational variables in
science classes measured two years prior, during
the senior year of high school, after controlling
for gender, race, socioeconomic status, family
type, and previous performance. N=53.
* p < .10 ** p < .05 *** p < .01
Table 7
Controlled Multiple Regression
Coefficients College Grades with
Components of Student Engagement in High School
Classrooms
| Variable
|
Coefficient |
| Engagement |
.181* |
| Interest |
.178* |
| Concentration |
.056 |
| Enjoyment |
.164** |
| Attention |
-.449 |
Note: Coefficient predicting grades
in college from motivational variables in math
and science classes measured two years prior,
during the senior year of high school, after controlling
for gender, race, socioeconomic status, family
type, and previous performance. N=75.
· p < .10 ** p < .05 *** p < .01
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