|
1. Analysis of Student Records
One of the rationales for the Pilot Curriculum was that a reduced
number of general requirement courses would make it possible for students
to create a curriculum tailored to their specific interests with the
expanded number of elective credits available to them. In this section,
we will examine what students have actually done with their course
choices, at least through the end of their third year at Penn. Using
archival records for students who entered as freshmen in the fall of
2000, we compare the course taking patterns of 198 students enrolled
in the Pilot Curriculum with those of 70 students who applied for the
Pilot Curriculum but were not chosen (“applicants”) and
1,275 students who chose not to apply (“non-applicants”).
The analyses covers courses taken in the first through third years
of residence at Penn.
Table 3 compares students on several dimensions related to course-taking
patterns. Because Pilot students generally have more free electives
to work with, it is plausible that they would be more likely to double
or triple major, pursue dual degrees, submatriculate, or study abroad.
The first four rows of Table 3 show no such tendencies. The last column
in the table is a p-value for testing the null hypothesis that there
are no real differences among the three groups for each outcome. A
p-value less than .05 is usually taken as statistically significant
evidence that there are real differences.
A major concern about the Pilot Curriculum has been that students
in the program would take fewer natural science courses, given that
they are only required to take one general requirement course in Category
3 “Earth, Space and Life” and another in Category 2 “Science,
Culture and Society.” To evaluate this possibility, we classified
courses taken by students as “science” if the course was
taught in one of the following departments: astronomy, biochemistry,
bioengineering, biological basis of behavior, biology, biomedical studies,
cell and molecular biology, chemistry, cognitive science, computer
science and engineering, electrical science, engineering and applied
science, environmental studies, genomics and computational biology,
geology, materials science and engineering, mathematics, mechanical
engineering and applied mechanics, physics, psychology, or statistics.
Majors were classified as science majors if they were in any of these
departments. For Pilot students, we also treated any course labeled
COLL003 (the earth, life and space category) as a science course. However,
we did not include COLL002 courses (the science, culture and society
category) because we suspected that some faculty might question whether
these courses are sufficiently rigorous or have enough science content
to be considered science courses.
Under this definition of science, we see that the percentage of students
who majored in science is about the same for all three groups. With
regard to courses, Pilot students took an average of 6.2 science courses
compared to 6.8 taken by applicants and non-applicants, a difference
that was far from statistically significant. Of course science majors
are required to take multiple science courses, so the real issue is
how the non-science majors compare across the three groups. Among the
non-science majors, Pilot students took an average of 4.1 science courses,
compared with 4.4 for applicants and 4.2 for non-applicants, another
non-significant difference.
Although the average number of courses is quite comparable across the
three groups, there are notable differences at the upper and lower
end of the distribution. Twenty-eight percent of the Pilot students
who are not science majors took only one science course (presumably
COLL03), compared with only 6 or 7 percent of the non-pilot students,
a difference that is highly significant. This differenced is counterbalanced
at the other end of the distribution by a tendency for some Pilot students
to take many science courses.
The disparity is even more marked for courses in mathematics or statistics
for which Pilot students have no requirement. As the last row in the
table shows, among non-science majors, fully 53 percent of Pilot students
took no math/stat courses, compared with around 20 percent of non-pilot
students (who either satisfied their requirement by AP credit or postponed
it until their last semester). Again, this difference is highly significant.
Table 2. Comparisons between Pilot Students, Applicants and Non-Applicants.
| |
Pilot
(N=198) |
Unselected
Applicants
(N=70) |
Non-Applicants
(N=1275) |
p-value |
| More than one major |
23% |
27% |
20% |
.21 |
| Dual Degree |
5% |
4% |
7% |
.48 |
| Submatriculation |
1% |
3% |
1% |
.58 |
| Mean Semesters Abroad |
.35 |
.39 |
.32 |
.55 |
| Science Major |
24% |
24% |
25% |
.95 |
| Mean Science Courses (all students) |
6.2 |
6.8 |
6.8 |
42 |
| Mean Science Courses (380 science majors) |
15.3 |
14.2 |
14.4 |
.44 |
| Mean Science Courses (1163 non-science majors) |
4.1 |
4.4 |
4.2 |
.78 |
| Only one science course (non-science majors) |
28% |
6% |
7% |
<.0001 |
No math or stat courses
(non-science majors) |
53% |
19% |
22% |
<.0001 |
2. Comparison of General Requirement Courses
The most visible component of the Pilot Curriculum is the set of special
courses designed for Pilot students to satisfy the General Requirement.
Several of these courses have been offered each semester since the
fall of 2000. In this section, we compare student evaluations of Pilot
General Requirement courses with those for regular General Requirement
courses. Specifically, we compare all 15 Pilot General Requirement
courses taught in the spring or fall of 2002, with a set of 28 courses
chosen from the regular General Requirement taught in the Spring of
2002.
The 28 regular curriculum courses were selected with representation
from each of the seven sectors. We tried to choose courses that served
as introductions to particular fields and the courses that students
are most likely to take in a given sector. But we did not want to include
only very large lectures, for that would have introduced a systematic
bias in comparison to the Pilot classes, which have fallen in the range
of small to medium. Some of the courses chosen (Devil’s Pact,
for instance) are interdisciplinary in much the same way that Pilot
courses are. In fact, two of the courses (Devil’s Pact and What
Every Lawyer, Businessman and Citizen Needs to Know about Molecular
Biology) have subsequently been approved as Pilot courses.
We first compared the courses using data from standard student evaluation
forms distributed in all courses. As shown in Table 3, the regular
curriculum courses tend to be somewhat larger with a median of 69 students,
compared with a median enrollment of 47 for the Pilot courses. This
difference is not quite statistically significant, however. Courses
from the two curricula are nearly identical in mean rating of the courses,
at a little over 2.5. For the instructor ratings, some of the team-taught
Pilot courses had the students evaluate each instructor separately.
In those cases, we simply used the mean of the multiple ratings. Again,
there is little if any difference in mean ratings of the Pilot courses
and the regular courses.
We also requested that instructors distribute supplemental evaluation
forms that were designed to focus on questions that were particularly
relevant to the success of the Pilot courses. We got responses from
14 of the 15 Pilot course instructors, but only 12 of the 28 regular
course instructors. With the exception of Psychology 1, we did not
obtain the cooperation of faculty teaching the very largest classes--Political
Science 1, History 2, Art History 102--which were also courses with
aims most in contrast with the Pilot classes. So the factors that differentiate
the Pilot courses and the regular curriculum courses ended up being
less clear than we had wished.
To test whether the 12 respondents were a representative subsample
of the 28 courses, we compared respondents and non-respondents on available
measures from the standard evaluation form. For all measures, the differences
were small and not statistically significant.
For five of the six questions that were identical across the forms
completed by regular and Pilot course instructors, the Pilot courses
were evaluated less favorably by substantial margins. For example,
an average of 60 percent of students in the regular curriculum courses
said the course was somewhat better or much better than other courses
they were taking in the semester, while the average for Pilot students
was only 47 percent. In Pilot courses, an average of 57 percent of
the students said the pace was about right, but in regular curriculum
courses the average was 69 percent. None of these differences achieved
statistical significance, although the p-values for the two questions
just mentioned came close.
In addition to comparing Pilot and regular curriculum courses, we
also looked at changes over time in student evaluations of the Pilot
courses. Figure 1 shows the average evaluations of courses and instructors
over the first five semesters of Pilot courses. As with student evaluations
generally, ratings for instructors are always higher than ratings for
courses. But there is little trend over time, and nothing that is statistically
significant.
Table 3. Comparisons of Student Evaluations in Pilot and Regular General
Requirement Courses
| |
Pilot Courses |
Regular Courses |
p-value |
Based on standard evaluation forms (15 Pilot, 28
regular) |
| Median Enrollment |
47 |
69 |
.14 |
| Mean rating of courses |
2.55 |
2.59 |
.82 |
| Mean rating of instructors |
2.90 |
2.98 |
.70 |
Based on respondents to supplemental forms (14 Pilot,
12 regular) |
| % Much or somewhat better than other courses |
47 |
60 |
.08 |
| % Successful at introducing material not covered in high school |
75 |
75 |
.92 |
| % Effective in understanding materials outside the course |
71 |
77 |
.19 |
| % Increased interest in learning more |
65 |
78 |
.33 |
| % Pace about right |
57 |
69 |
.09 |
| % Course covered topics in sufficient depth |
36 |
42 |
.37 |
| Mean rating of courses |
2.55 |
2.59 |
.82 |
| Mean rating of instructors |
2.90 |
2.98 |
.70 |
Figure 1. Mean Student Evaluations of Pilot Courses
and Instructors, By Semester 

3. Scientific and Quantitative Literacy, and Interest in Science
To evaluate the contributions of the Pilot curriculum and the regular
curriculum to scientific and quantitative literacy, we developed and
validated a Science Survey. This survey includes multiple choice items
that assess scientific reasoning, and knowledge of important concepts,
facts and terminology, primarily in biology, chemistry, physics, environmental
sciences and math. A 24-item paper and pencil version of the Science
Survey was administered to the entering freshman class during Freshman
Orientation in September, 2001. Early in the fall semester, 2003, a
22-item Web-based version of the survey was administered to a sample
of seniors (students who entered Penn in fall, 2000 and had at least
20 CU of course credit). The survey for seniors included additional
items to assess interest in science (self-rated interest in science
and how often the student gets science information from various non-course
sources).
We received usable surveys from approximately 83% of the entering
freshmen (89% of Pilot students vs. 82% of non-Pilot students). The
response rate for the senior sample was 68% and did not differ significantly
for students in the Pilot Curriculum (124 respondents), students who
applied for the Pilot Curriculum but were not chosen (32), and our
sample of non-applicant non-Pilot seniors (132). For the seniors, we
were able to compare respondents with non-respondents and found several
significant differences. Respondents were more likely to be science
majors, had earned more CU's, had more total CU's, and had higher GPAs
(with an almost significant difference in the same direction in SAT
math scores). Thus, our data almost certainly overestimate the scientific
and quantitative literacy of seniors in the College.
For comparability we give the proportion of correct answers for the
22 scientific and quantitative literacy items which were included in
the Science Survey for both freshmen and seniors. On average, entering
freshmen gave correct answers for 56% of these items, whereas seniors
gave correct answers for 61% of these items. For seniors, the proportion
of correct items was significantly higher for science majors (67%)
than for non-science majors (58%). These percentages suggest the possibility
that a College education contributes to improved scientific and quantitative
literacy for science majors, but not for non-science majors. We hope
to gain further insight concerning this issue in fall, 2004, when we
obtain follow-up information from the freshmen we surveyed in fall,
2001.
For the freshmen, Pilot students answered more of the scientific and
quantitative literacy items, resulting in more correct answers, but
this may have been due to testing in a smaller Dean's session which
was just for Pilot students. Results from our sample of seniors suggest
that scientific and quantitative literacy may have been similar for
incoming Pilot applicants and non-applicants. Specifically, seniors
in the Pilot Curriculum, seniors who had applied for the Pilot Curriculum
but were not chosen, and non-applicant non-Pilot seniors did not differ
significantly in SAT math and verbal scores or number of AP or college-level
science and math courses taken before coming to Penn.
Among seniors, the proportion correct for the scientific and quantitative
literacy items did not differ significantly for those in the Pilot
Curriculum, those who applied for the Pilot Curriculum but were not
chosen, and non-applicant non-Pilot seniors. In addition, there was
no significant difference in the proportion of students with low scientific
and quantitative literacy scores. These three groups also did not differ
significantly in terms of the Science Interest scale, average number
of science and math courses they reported taking at Penn, or whether
or not they had a science or math major (defined as Biology, Biochemistry,
Biological Basis of Behavior, Biophysics, Chemistry, Cognitive Science,
Environmental Studies, Geology, Mathematics, Physics and Astronomy,
Psychology). In conclusion, our results indicate that seniors in the
Pilot Curriculum did not differ from other seniors in terms of scientific
and quantitative literacy or interest in science.
4. Self-Reported Educational Experience
The seniors who participated in the Science Survey also completed
an Undergraduate Education Survey concerning their educational experience
at Penn. This survey included ratings of various aspects of the seniors’ educational
experience (Table 4) and a request for “comments or suggestions
concerning your Penn Education” (comments summarized in Table
5). The overall response rate was 66%, which included 123 Pilot students,
31 Applicant Non-Pilot students (Pilot applicants who were not selected
for the Pilot program), and 129 Non-Applicant Non-Pilot students.
The students’ ratings (Table 4) and open-ended comments (Table
5) both indicated considerable satisfaction with their Penn education,
but dissatisfaction with advising during their first two years. These
ratings did not differ significantly by Pilot status. The specific
criticisms of advising included complaints about poorly informed advisors
(especially faculty advisors), advisors who did not provide sufficient
direction, and turnover of advisors (e.g., due to leaves). Among the
many additional comments and suggestions, the largest categories were
requests for fewer requirements (especially requests for fewer distribution
requirements from non-science majors), complaints about faculty who
were not interested in teaching or accessible to students, and dislike
of science courses (a category which may have been increased by the
preceding Science Survey) including complaints that courses were too
big and professors were uninterested, and objections to being in science
classes with premeds.
Students gave relatively high ratings for the contribution of their
Penn education to a variety of general intellectual abilities, with
lower ratings for the contribution of their Penn education to more
specific types of learning, especially for science and the arts (Table
4). For these ten items, only one showed significant variation by Pilot
status; this difference suggests that Pilot students may have gained
more in terms of “ability to learn on your own, pursue ideas,
and find information you need”. Self-reports of participation
in thirteen categories of learning experiences also showed few differences
by Pilot status. More of the Pilot students reported a “research-oriented
independent study or other research experience”, which is not
surprising since the Pilot curriculum requires a research experience.
In addition, more Pilot students reported a “culminating senior
experience (comprehensive exam, capstone course, thesis, etc.)”.
This probably relates to the research experience requirement, since
research experience correlates strongly with participating in a culminating
senior experience.
In summary, these self-reports are in agreement with other results
suggesting relatively little effect of the Pilot curriculum on the
undergraduate experience, although the requirement for a research experience
has the expected effect of increasing participation in research.
Table 4. Student Evaluations of their Undergraduate Educationa
How would you evaluate your entire educational experience at Penn?
Mean rating: 3.4 (between 3 = good and 4 = excellent)
Overall, how would you evaluate the quality of academic advising you
received in your first two years at Penn? Mean rating: 2.2 (between
2 = fair and 3 = good)
To what extent has your experience at Penn contributed to your knowledge,
skills, and personal development in the following areas? (1= Very little,
2= Some, 3= Quite a bit, 4= Very much)
| Means |
|
| 3.4* |
Ability to learn on your own, pursue ideas, and find information
you need |
| 3.2 |
Thinking critically and analytically |
| 3.1 |
Ability to integrate diverse information and ideas from multiple
sources |
| 3.1 |
Acquiring a broad general education |
| 3.0 |
Developing an understanding of people, societies and/or governments |
| 2.8 |
Writing clearly and effectively |
| 2.5 |
Broadening your acquaintance with and enjoyment of literature |
| 2.3 |
Developing an understanding of art, music and/or drama |
| 2.3 |
Understanding the process of science and experimentation |
| 2.1 |
Understanding new scientific and technical developments |
Which of the following have you done or do you plan to do before you
graduate from Penn?
% Answering Yes (with undecided counted as half each)
| |
|
| 80% |
community service, volunteer
work, or service learning course |
| 80% |
took several courses to pursue
another interest (not counting other categories below) |
| 73%** |
research-oriented independent
study or other research experience |
| 70% |
practicum, internship, field
experience, co-op experience, or clinical assignment |
| 64% |
learned a second foreign
language or earned a language certificate |
| 61%*** |
culminating senior experience
(comprehensive exam, capstone course, thesis, etc.) |
| 60% |
minor |
| 50% |
courses to prepare for postgraduate
work, such as medical school |
| 41% |
study abroad |
| 40% |
double major or dual degree |
| 37% |
took courses to improve your
GPA |
| 8% |
submatriculation masters |
| 3% |
earned a computer certificate |
|
a No significant differences
by Pilot status were observed for most items; the three exceptions
areindicated below.
*significantly different for Pilot (3.5), Applicant Non-Pilot (3.1), and Non-Applicant
Non-Pilot (3.3) (p = .03)
**significantly different for Pilot (91%), Applicant Non-Pilot (62%), and Non-Applicant
Non-Pilot (58%) (p = .000)
***significantly different for Pilot (72%), Applicant Non-Pilot (55%), and Non-Applicant
Non-Pilot (52%) (p = .004) |
Table 5. Summary of Comments Concerning Penn
Educationa
| |
Pilot |
Applicant Non-Pilot |
Other Non-Pilot |
| Opinion |
SM |
NSM |
SM |
NSM |
SM |
NSM |
Total |
|
| Overall Positive concerning Penn Experience |
2
|
6
|
0
|
0
|
4
|
9
|
21
|
| Overall Negative concerning Penn Experience |
0
|
1
|
1
|
1
|
0
|
2
|
5
|
| |
| Wanted Better Advising |
4
|
14
|
4
|
0
|
2
|
8
|
32
|
| Had Good Advising |
0
|
1
|
0
|
0
|
0
|
2
|
3
|
|
|
| Should Be Fewer Requirements |
1
|
4
|
0
|
2
|
0
|
3
|
10
|
| Faculty Not Interested in Teaching or Accessible
to Students |
0
|
2
|
0
|
2
|
2
|
2
|
8
|
Disliked Science Courses |
1 |
1 |
1 |
2 |
3 |
3 |
11 |
|
|
| Total Number of Students Who Wrote Commentb |
12 |
43 |
6 |
4 |
13 |
28 |
106 |
| Total Number of Respondents to Educational Survey |
41 |
82 |
14 |
17 |
40 |
89 |
283 |
|
aThis table shows the number of students who mentioned
each specified opinion in response to the final open-ended question.
bTotals are not equal to the sum of the numbers in each column
because some students wrote comments on multiple topics and some
students wrote comments on other topics not included in this table.
SM = Science Major
NSM = Non-science Major |
5. Faculty Evaluations
Interviews with first semester faculty
In spring of 2001, following the first semester of the Pilot, committee
members conducted telephone or face to face interviews with each faculty
member teaching a Pilot course. The committee thought it important
to interview individuals rather than teams to ensure that issues of
coordination and integration could be discussed candidly. Interviewers
worked from the same set of questions, but allowed discussions to flow
naturally. The questions were as follows:
1. Overall, what were the successes and problems you encountered in
teaching your Pilot curriculum course?
2. How did you feel about the team teaching in this course? What were
the advantages and disadvantages?
3. In what way did you collaborate with your colleagues, as opposed
to simply dividing the course into independent units?
4. What were the advantages and disadvantages of the interdisciplinary
approach for this course?
5. How did the amount of preparation time for this course compare with
other first-time courses you have taught?
6. Did the experience of teaching this course differ from what you
expected? How?
7. Do you think that the students in your Pilot course were different
from other students you've taught at this level? If so, how?
8. Overall, how effective do you think the course was in achieving
your goals?
9. Do you plan to teach this course again? If not, why not?
10. What advice would you give to someone who is planning to teach
a Pilot course?
Optional:
1. What was it that attracted you to teach a Pilot curriculum course?
2. Did you use Blackboard or a listserv? If yes, was it useful?
Faculty consistently reported enthusiasm for team teaching (all but
one of the courses in the first semester was team-taught), and a number
of them commented that it was the most satisfying intellectual experience
related to undergraduate education that they had ever had. Several
observed that team teaching far from reducing the amount of time they
spent preparing for class increased it significantly. Most of the teams
reported spending time each week coordinating class presentations and
discussions in addition to the efforts they had made during the previous
summer to prepare a syllabus that integrated their various perspectives.
Forums with faculty
Following these interviews, the committee organized a forum attended
by many of the faculty who had taught in the first academic year (fall
and spring), faculty who were preparing new courses for the second
year of the Pilot, and members of the evaluation committee. The session
was taped. Discussion centered on the challenges of team teaching and
the value of an interdisciplinary approach in courses intended to serve
as vehicles for general education for first and second year students.
Faculty who had taught or who were teaching these courses generally
expressed high satisfaction with the experience. They stressed the
importance of good regular communication with one another and a genuine
interest in one another’s material. The team teaching and the
interdisciplinarity usually meant that faculty had to back away from
the thorough coverage of content to which they were accustomed in their
other teaching. They endeavored instead to bring students to understand
various approaches that may be taken to a question and how they relate
to each other.
Feedback from a number of students indicated that they did not always
understand what the courses expected of them, and faculty at the forum
suggested that they may need to make a special effort at various steps
along the way to explicate just what they are doing with the material
and why they are doing it. One committee member, noting that team teaching
in the long run could be sustained only if enrollments became much
larger than they were in the first year of the Pilot, wondered which
model of interdisciplinary general education was preferable: large
classes with team teaching or smaller classes taught by individuals.
The response from faculty experienced teaching Pilot courses was that
they wanted to have it both ways: smaller, team-taught classes with,
however, two-person teams rather than three-person teams. In sum, the
model employed in the Pilot classes so far was highly regarded by the
faculty teaching them, even if they recognized that something would
have to give if the general requirement of all students in the College
were to be built around this model.
A similar forum held in the spring of the second year yielded a markedly
different tone. The conversation focused more on some of the feedback
from students that by now had been circulating, to the effect that
they found integration of the multiple perspectives offered through
team teaching difficult and frustrating. These reports of student sentiment
elicited some bemoaning of the lack of maturity of some first and second
year students, of the common fixation on grades, and of the reluctance
of some to allow themselves to be engaged by the open-ended flow of
ideas that many of these courses aimed to inspire and their preference
to be told exactly what specific material the professors wanted them
to learn.
Debriefings with faculty
In the second year of the Pilot, administrative directors from the
College began holding regular post-mortem meetings with faculty teaching
Pilot courses (collectively in the case of team-taught courses) to
review syllabi, learn how satisfied faculty were about how the course
and the various assignments went, learn how satisfied they were with
the quality of students’ work in the class (homework assignments,
class discussions, exams or term papers), and to ask if there were
changes they would like to make when offering the course again, and
to read together the students evaluations. The purpose of these meetings
was to help faculty take stock of the course and to offer resources
for ongoing improvement.
Through the exercise of reading the evaluations, they discovered in
perhaps every case a complexity in students’ responses to these
courses that is not reflected in the standard course evaluations. Although
the standard evaluations of overall course and instructor quality were
in many instances lower than the school averages and were often lower
than the evaluations these individual faculty themselves were used
to seeing for their other courses—this was especially so in the
case of team-teaching—the comments from the supplemental evaluation
forms told a more interesting story. The supplemental forms elicited
more comments, and more thoughtful comments, than is typical on the
standard evaluations. In every course, there were a good number of
students who were very enthusiastic about the course and the quality
of the instructor(s) and also, in most courses, a number who were critical.
For what it is worth, the positive comments usually outnumbered the
negative ones, even when the total responses on the Likert scale associated
with that question were evenly split between positive and negative.
For whatever reason, enthusiastic students were more willing to express
their enthusiasm with commentary than were students who were critical.
We have not been able to see whether a similar pattern is evident
in the supplemental evaluations of a set of courses from the regular
General Requirement, because the comments have not been collated.
6. Student Focus Groups
The Pilot Evaluation Committee has held 10 focus groups to gain insights
into experiences of students who are enrolled in the Pilot Curriculum
and in the regular curriculum. Three focus groups were held in 2000-2001,
four in 2001-2002, and three in 2002-2003, with each group consisting
of 5 to 12 students. All focus groups were videotaped and a graduate
student observer prepared written summaries of the discussions.
The focus groups of Pilot students in the first two years solicited
students’ views on features of the Pilot Curriculum that had
led them to apply for the program, quality of Pilot Curriculum courses,
use of electives, academic plan, research requirement, and advising.
The focus groups in the third year emphasized students’ experiences
with advising and the research requirement. The focus groups with
non-Pilot students similarly sought information about students’ views
on quality and choice of courses, an institution of an academic plan,
research requirement, and advising.
The differences in the two curricula were mainly reflected in the
students’ views
of the choice of courses that they were required to take. Pilot
students complained about the limited number of available required
Pilot courses
in their first two years at Penn and regular curriculum students
expressed some frustration with required, mainly science, regular
curriculum
courses they had to take. In general, Pilot students appreciated
the smaller number of requirements and regular curriculum students,
particularly
those who had applied for the Pilot Curriculum but were not chosen
and those with a double major, expressed frustration with the number
of regular curriculum requirements. Both Pilot Curriculum and regular
curriculum students told us that required courses they had taken
influenced their subsequent choice of courses. Experiences with
advising ranged
from very helpful to not helpful at all among both Pilot Curriculum
and regular curriculum students, although overall Pilot students
appeared to have been somewhat more satisfied with their advisors.
Pilot students
expressed frustration about the lack of information concerning
the research requirement and, when asked, regular curriculum students
were
apprehensive about instituting a research requirement for all Penn
students.
Pilot Students (6 focus groups)
The principal reasons for applying for the Pilot Curriculum were that
it had fewer requirements and thus provided greater freedom to choose
electives than the regular curriculum. These aspects seemed particularly
attractive to students interested in a double major. Some students
were also attracted to the Pilot Curriculum by the interdisciplinary
nature of Pilot courses.
Most students were content in having chosen the Pilot Curriculum
and many, but not all, would recommend it to others. At the same
time,
students were critical of the limited choice of Pilot Curriculum
courses in their first two years at Penn and the quality of many
of the courses
offered. Courses students had taken shaped their views about course
quality and not all views were negative. Most frequent complaints
centered on too much material being covered in a single semester
and a lack
of coherence in courses with multiple instructors. Courses that students
perceived to be better integrated and in which team teaching worked
smoothly received more favorable reviews. In some cases Pilot Curriculum
courses had influenced students’ subsequent choice of courses
by encouraging further study in a given area or by discouraging students
from taking additional courses in a subject matter. Recommendations
for changes included increased variety in course offerings, improvement
in the quality of instruction (if courses were to be team taught,
two rather than three professors was preferable), and smaller classes.
In the first two years, students expressed frustration about the
lack of information regarding the research requirement. By the
spring of
their junior year, none of the Pilot students had engaged in research
experiences for the goal of fulfilling the Pilot Curriculum research
requirement. However, many reported having conducted research in
a variety of other settings: summer internships, an optional research
paper for a class, an independent study, etc. A Vagelos scholar
had conducted research in a lab, and others noted that in their
view
a
research requirement for a major would overlap with the Pilot Curriculum
research requirement.
Students gave mixed opinions about the required academic plan.
Because many students must prepare a plan for a major, some students
found
the requirement redundant while others noted that the exercise
was beneficial in helping them think through what they wanted
to do and
what was feasible. None of the students reported much give and
take with their advisors in writing their academic plans. Nevertheless,
many students who participated in a focus group in their junior
year
believed that writing the plan had been helpful, and most students
reported that they were following their plans.
The reports on advising ranged from very helpful to not helpful at
all and reflected the students’ experience with his/her advisor.
Most students reported that they had sought information on the following
topics: course selection, clarification of requirements, identification
of faculty in various departments, exploring and selecting a major,
and learning about academic options outside the major. Pilot students
also reported that their advisors were unable to answer questions about
the criteria or expectations for the research requirement.
Pilot Curriculum applicants currently enrolled in the regular curriculum
(2 groups)
During the freshman year, students in this group felt that they had
more choice in course offerings than the Pilot students, who had to
choose from a limited number of available Pilot Curriculum courses.
By the sophomore year, however, these views had changed. The regular
curriculum students now felt that their freedom to choose was limited,
they could not find interesting courses in all required areas, and
some students complained about the quality of science courses for non-majors.
These students felt that these science courses were of a lesser quality
than required social science courses, which are taken by both majors
and non-majors.
As was the case with Pilot students, required courses students had
taken had influenced their subsequent choice of courses by both
encouraging and discouraging
further study in a given area.
Several students stated that they were planning to conduct research
within their majors as a senior thesis, but all felt that a research
requirement for
all Penn
students would not be a good idea. They stated that students who have no
interest in engaging in research should not be required to do so.
Students recommended
some changes in the regular curriculum, such as allowing upper level courses
to count for regular curriculum requirements.
Non-applicants enrolled in the regular curriculum (2 groups)
These focus groups were held with sophomores and juniors in 2001-2002
and 2002-2003. Students felt that they had adequate choice of classes,
although those who were double majoring expressed some frustration
in their ability to take electives. Students also expressed the view
that the regular curriculum had provided a beneficial structure during
their freshman year and that required courses gave them an opportunity
to explore multiple fields. Students also noted that regular curriculum
required courses had influenced their subsequent choice of courses,
including a choice of a minor. These students expressed mixed views
about instituting a research requirement for all Penn students. Students
recommended several changes in the regular curriculum, including lowering
the number of required courses, providing more flexibility in choosing
courses among sectors, and allowing advanced placement courses to count
towards the General Requirement.
As was the case with the Pilot students, students enrolled in the
regular curriculum had mixed views of the advising process and
these experiences
were similar to those of the Pilot students. On the whole, however,
a larger proportion of Pilot students were somewhat more positive
about the advising process than non-Pilot students. At the same
time, there
was not much difference in the number of times Pilot Curriculum and
regular curriculum students met with their advisors, or topics that
were discussed, except that none of the regular curriculum students
said that they had discussed academic options outside their major
with their advisors. 7. Academic Advising in the Pilot Curriculum
If advising of Pilot freshmen differs in effectiveness from advising
freshmen in the regular curriculum, it may be because of the different
courses the Pilot students are taking or because of the way the additional
electives available to Pilot students changes their outlook on their
individual academic programs. These same factors affect advising of
Pilot students in the sophomore year, along with the additional feature
of the required academic plan. While sophomores in the regular curriculum
continue with their freshman advisors, they are not required to meet
with them. Conversations that do occur are not structured as they are
for Pilot students, for whom the academic plan dictates a certain purpose
and importance to their meetings. After the sophomore year, there are
no systematic differences in the provisions made for their academic
advising of Pilot versus non-Pilot students.
All students in the first Pilot class did in fact engage in a planning
process with their advisors, and all of them submitted their academic
plans in writing by the end of the second semester of the sophomore
year. Advisors were asked to forward those plans to the College Office
so they could be made available for analytical purposes and to transmit
as appropriate to students’ major advisors. Except for a few
that were lost by the student or the advisor after the advisor had
signed off on them, the College Office received plans for each student.
Evaluation Committee’s Meetings with Pilot Curriculum Advisors
During the spring of the first two years of the Pilot (2001 and 2002),
the evaluation committee met with those who advised students in the
Pilot. For the first meeting, the committee formulated four questions
in advance:
Did the advisors experience anything different about advising students
in the Pilot curriculum compared with previous experiences advising
students in the regular curriculum?
To what extend did they find students in the Pilot thinking ahead
about their academic programs?
Did students in the Pilot seem more adventuresome in their thinking
about their academic programs?
Were students in the Pilot curriculum asking different kinds of
questions from those asked by students in the regular curriculum?
The general consensus among both faculty and
assistant deans serving as academic advisors was that advising students
in the Pilot was more satisfying but also more challenging than advising
students in the regular curriculum. Questions students asked tended
to be more about how they might follow up on interests raised in their
Pilot classes than about what courses to take to satisfy a certain
sector requirement. In general, discussions with advisees were more
focused on students’ academic interests and goals and less on
structural matters pertaining to requirements.
Advisors thus found themselves engaged in more interesting conversations
with advisees about academic content, but they often felt unprepared
to respond to questions about academic interests with helpful practical
recommendations. One strategy some adopted was to refer students
to faculty whom they knew who worked in the areas of their advisees’ interests
or, failing that, to the undergraduate chair in the relevant department.
Although it was somewhat disconcerting, especially for faculty serving
as advisors, to not themselves be able to provide helpful advice
in every instance, they felt that making referrals in this way
after a
conversation about students’ interests was preferable to what
they remembered from advising sessions with students in the regular
curriculum. Those conversations typically revolved around helping
students decide which courses to take to fulfill various sector requirements.
In addition, advisors passed on to the committee some of the same
concerns from students that the committee has heard directly from
students themselves,
namely that there were not many courses from which to choose and
that students often had a difficult time integrating material and
perspectives
presented in team-taught courses, especially those involving three-person
teams.
The second meeting with Pilot advisors was held in the spring of
2002 after Pilot students in the first class were expected to
have written
and submitted their academic plans. Several of the eleven advisors
present required advisees to rewrite their plans after a first
conversation with students about them. A common observation advisors
made about
the plans was that students tended to devote more attention to
the Pilot courses they had taken than to what they would do with
the
elective portion of their studies. (It was observed that this
tendency may have
been created unwittingly by some of the sample plans that were
made available to students.) Despite this, advisors found the
exercise to be constructive. Several were adamant that the plans
not be
filed
away
but that they be made available to major advisors, not as firm
commitments to which students would be held but rather as starting
points for
further conversations in which students’ plans for the
major, and specifically for research, would become more refined. 8. Assessment of Academic Plans
Students in the Pilot Curriculum are required to write a comprehensive
academic plan and discuss it with their advisor by the end of their
sophomore year. According to the current guideline, the academic plan
should include the following elements: brief personal narrative, overview
of one’s program, choice of major, research project, and free
electives.
To evaluate this requirement, the evaluation committee examined academic
plans submitted by Pilot students in the spring of 2002. Each committee
member read ten randomly chosen plans from among those submitted.
These were discussed at a committee meeting.
Most of the academic plans were about one page long, single spaced.
Not surprisingly, the plans varied widely in tone and content.
The consensus of the committee was that while most of the plans
were
quite thoughtful, they generally did not say much about what had
been regarded
by the faculty as the most important element, namely, the intentions
and rationale for taking elective courses. Furthermore, they tended
to be more retrospective than prospective. A considerable amount
of space was devoted to what general requirement courses they had
taken,
why they had chosen those courses, and what they had learned from
them. Secondarily, they often talked at some length about the intellectual
journey that led to their choice of a major, and how that choice
related
to their career plans, or lack thereof. Some students had a clear
idea of how they intended to satisfy the research requirement,
while others
were quite vague or uncertain. 9. Research Requirement
The Pilot Curriculum is expected to offer students significant opportunities
for individual research, scholarship and/or creative projects, and all
Pilot students must engage in some form of research prior to graduation.
Research is currently an option for students enrolled in the regular
curriculum, although it is required in some majors. Pilot students have
been informed that they can fulfill the research requirement in a number
of ways – by taking an upper level research seminar or an independent
study, writing a senior thesis, or conducting research in a laboratory.
Students have been advised to consult with their major advisor to discuss
ideas, available research opportunities, and to identify faculty who
can offer guidance in the specific area of research. The college expects
that most Pilot students will fulfill the research requirement in the
context of their major during the students’ senior year. Research
projects will be evaluated and approved by the student’s major
department unless the student’s research project is in an area
unrelated to the major, in which case the department related to the area
of research will evaluate and approve the student’s work.
In spring 2002, the Committee on Undergraduate Education (CUE) solicited
information about the nature of research experiences that are or could
be offered for undergraduate students in the college. Not surprisingly,
responses to this inquiry suggest that there is considerable variation
in departmental research requirements and available research opportunities
that are related to disciplinary considerations and the number of majors.
All departments provide some opportunities for independent research,
but all departments do not require that students engage in independent
research as a condition for graduation. Most departments in humanities
and social sciences expect students to take upper level research seminars,
independent studies with a research component, or a capstone course,
or students have the option of writing a senior thesis (in some departments
this option is available to all students and in others students must
qualify for departmental honors). The rigor of these requirements varies
by department. In the science departments, most students gain research
experience by working in a lab as a research assistant, a work study
student, an independent study student, or a volunteer. In addition,
many students gain experience in designing experiments, evaluating
research
findings, or conducting lab experiments as a part of an upper-level
course within the major. Many departments, especially those with
a large number
of majors and science departments with considerable research related
expenses associated with lab experiments, voiced concern about substantial
changes in existing research requirements.
In the fall of 2003, the college surveyed Pilot Curriculum seniors
via an email questionnaire to determine whether students were making
progress
in fulfilling the research requirement. Students were asked to give
a brief description of their project, indicate the type of research
they
were engaged in (lab and other experiments, library research, secondary
data analyses, survey study, creative project, other), whether the
student planned to work on this project for one semester or longer,
and the name
of the student’s faculty advisor. Of the 175 Pilot students
surveyed, 115 had responded by mid-November. Table 6 provides summary
results from
this survey.
Overall 30 students were engaged in some form of research in a laboratory
that in many cases also involved library and/or other related research.
Forty-five students reported that they were engaged in secondary
or survey data analyses, including ethnographic field work, interviews
and observations,
also often in combination with library and other research. Five
students indicated that their research involved a “creative
project”,
and 27 students identified library research either alone or in
combination with unspecified research methods as their primary research
methodology.
Finally, eight students mentioned that their research experience
consisted of an internship or a senior thesis without specifying
the type of analyses
they were undertaking. It is quite possible that other students
were also writing a senior thesis without explicitly mentioning that
their
research was leading to a senior thesis.
In response to the question – “Do you plan to work on this
project one semester or more than one semester?” – about
half of the respondents reported that they planned to work on their projects
more than one semester.
It is also noteworthy that only 66% of the Pilot students surveyed
had responded to the email questionnaire by mid-November. It is possible,
although not known, that non-response is associated with a lack of
research
experience on the part of the non-respondents. Further follow-up will
be needed to determine whether this is in fact the case.
Table 6. Responses to the College Survey of Pilot Students’ Research
Experience
| Projects by Type of Research and Length |
Number |
| |
| Type of Research (among students reporting only one category) |
|
Laboratory & other experiments
|
18 |
Library research
|
24 |
Secondary data analysis
|
2 |
Survey study
|
0 |
Creative project
|
2 |
Other
|
12 |
| |
| If Other Please Specify: |
|
Senior Major/Honors Thesis
|
6 |
Internship
|
2 |
Ethnographic Field Study
|
2 |
Observations
|
2 |
| |
|
| Type of Research (among students reporting multiple categories) |
|
| Library & Creative project |
3 |
| Library and Interviews |
2 |
| |
Library & Secondary data analysis
|
16 |
Library, Lab & Survey study
|
1 |
Library & Lab
|
1 |
Library & Other (field study)
|
1 |
Library & Other (not specified)
|
1 |
| Projects by Type of Research and Length |
Number |
Library & Other (senior/honors thesis)
|
2
|
Library & Survey study
|
4
|
Library, Secondary data analysis & Other (not specified)
|
5
|
Library, Secondary data analysis & Survey study
|
4
|
Library, Secondary data analysis, Survey study & Other
|
1
|
Library, Secondary data analysis & Lab/other experiments
|
3
|
Lab & Other (field study)
|
1
|
Lab & Secondary data analysis
|
6
|
Secondary data analysis & Other (not specified)
|
1
|
Secondary data analysis & Survey study
|
1
|
Secondary data analysis, Survey study & Other
(not specified)
|
2 |
Survey study & Other (case study)
|
1
|
Survey study & Other (observations/interviews)
|
1
|
| |
How long are you working on this research:
|
|
One semester
|
50
|
More than one semester
|
59
|
No Answer
|
6
|
| |
|