
Earth Science
Bachelor of Science in Geology (52)
Contact Person:
Dr. Steve Leslie
Department of Earth Science (501) 569-8061
saleslie@ualr.edu
UNIVERSITY OF ARKANSAS AT LITTLE ROCK Plan No. 52
Assessment Progress Report Form - Calendar Year 2004
I. USE OF ASSESSMENT FOR PROGRAM BUILDING AND
IMPROVEMENTS:
Four of the five
Geology Program’s Student Learning Objectives were assessed for the Calendar
Year (CY) 2004. Objective 3 was not assessed because the Paleobiology course
in which this objective is assessed was not taught during CY2004. See the
Approach (Section 3) of this report for a more detailed description of
each Student Learning Objective.
Objective 1-
Students will be able to recognize and describe common minerals and rocks as
well as some minerals and rocks that are relatively uncommon but that are
important (e.g., in interpreting earth history, economically, etc.).
This objective
is assessed primarily with the laboratory final exams in Mineralogy (ERSC
2320), Igneous and Metamorphic Petrology (ERSC 3311), and Sedimentology (ERSC
3350). These laboratory exams emphasize mineral and rock identification.
Exams are used to assess this objective because they directly correspond to
the learning objective and can be easily quantified. A minimum score of 70% on
each of the exams is considered acceptable for meeting this objective. The
rubrics for this exam are designed such that a 70% score would be the lowest
“C” (lowest satisfactory score). The objective nature of these exams
minimizes reliability issues. Results from the rock and mineral lab exams
from CY2002, 2003 and 2004 are presented in Table 1.
Table 1.
Results from the Mineralogy, Igneous and Metamorphic Petrology, and
Sedimentology Lab exams on Rock and mineral identification for CY2002, 2003,
and 2004.
Click
here to see Data Table 1
This is the third year that Objective 1 has been addressed. The total sample size is
small, however the results are mostly positive.
Faculty
assessment discussions have resulted in changes implemented in the exams and
rubrics related to the concept of Universal Design, (the incorporation of best
practices for the inclusion of multiple learning styles) – see discussion of
Universal Design under Summary of Use of Assessment for Program Building
below.
Objective 2
- Students will be able to make systematic scientific observations of rock
samples, outcrops, and stratigraphic sections, and interpret these
observations using sound scientific principles.
One of the
capstone experiences for students in the Geology Program is a six-week, six
credit-hour intensive Geology Field Camp generally offered in the summer. We
do not offer this course at UALR because of the high cost of running it and
the relatively small number of students who take it each year - a situation
faced by many geology programs nationally. We require that our students take
this course with another university. A benefit of this for assessment purposes
is that it allows for an external assessment of our geology program. The
department must approve the course before the student participates in it.
Field course exercises include observations of geologic phenomena in the
field, identification of rocks, structures, fossils, stratigraphic section
measurement, synthesis of this information usually in the form of geologic
mapping, and interpretation of the synthesized data in the form of written
reports.
Click here to see Data Table 2
Data compiled in
Table 2 from all majors who have completed field camp indicate that, in
general, our student perform at the A or B level. This shows that our
students are exhibiting the ability to think scientifically in the field of
geology.
Instructor
evaluation forms (attached) have been developed to be provided to field camp
instructors immediately following completion of the field course. We expect
these results will provide us with more detailed information on specific
program strengths and weaknesses in the future. Since the implementation of
the field camp instructor evaluation form only one student has attended field
camp (CY 2004). Unfortunately the instructor evaluation form for this student
was not returned.
We experimented
in 2002-2003 with offering the equivalent of a traditional six-week, six
credit-hour field course through our own department. This was initiated
partly by disability accommodation issues. We offered three two-credit hour
courses (Field Camp I, II, and III) over three consecutive semesters focusing
on three geologically diverse regions. The two students who chose this option
completed all three during Summer 02 – Spring 03. This is another example of
the implementation of Universal Design in our program. Other institutions are
realizing that a 6 week summer commitment can be a hardship and barrier to
choosing Geology as a degree path. We are continuing to discuss the issues
related to the field camp requirement in our program, most recently at a
Department of Earth Science faculty retreat (December 2004) on curricular
issues.
Objective 3
- Students will be able to recognize common invertebrate fossils, interpret
the ancient environment in which the fossil lived, and assess their utility as
indicators of geologic time.(Not assessed CY 2004 – Paleobiology not taught CY
2004)
The laboratory
final exam in Paleobiology is used to assess Objective 3. The average score
over the past 3 times that this course has been offered is just over 71%. This
is a challenging exam, and a score of 70 or above is considered a good score
in the opinion of the professor, and a score below 55 is a poor score (Table
3).
The professor
discusses poor scores with the students who receive them, and in general, it
is lack of preparation [studying lab specimens before the exam for a
sufficient amount of time, and lack of time learning characters on the fossils
that are used in systematics (i.e., the Kingdom, Phylum, Class, Order)] that
is the reason for the poor scores.
Click here to see Data Table 3
In the past, we
have used the ACAT test as an external assessment of Objective 3. However, we
have suspended this method until we are confident scoring issues are resolved.
We are presently considering alternative standardized tests including the
ASBOG (Association of State Boards of Geology), or the Geology GRE.
Objective 4
- Students will be able to construct and interpret geologic maps and
geologic cross-sections, evaluate models of geometry of rock units at depth,
and graphically present surface and subsurface geologic and topographic data.
Objective four
is assessed at three stages of the program: during Geologic Methods (ERSC
2320), Structural Geology (ERSC 3330), and Field Geology (Field Camp) (ERSC
4626).
Students
continue to score above the minimum satisfactory 70% on the Geologic Methods
final project/poster where students present their semester-long field-mapping
project as a poster session (posters are made using presentation software and
plotted on a large-format plotter) (Table 4). The departmentally developed
rubric for this project is designed such that a 70% score would be the lowest
“C” (lowest satisfactory score).
These projects
are rated by all in the Earth Science Program faculty, and by students in the
class using a rubric designed with input from all faculty. Analysis of the
scores on the rubric yield no particular pattern, therefore no changes to the
curriculum were made based on this data. We believe that the results provide
one line of evidence that Objective 4 is being addressed and met in this
course.
Click here to see Data Table 4
Click here to see Data Table 5
Objective 4 is
also assessed in the Structural Geology course in a semester-long structural
synthesis project. Results from this project are shown in Table 5. Students
in this course have performed above the acceptable 70%.
Lastly,
Objective 4 is assessed in the 6-week Field Course at the culmination of the
Geology degree. For further details, see the results and discussion under the
assessment of Objective 2.
Objective 5
- Students will demonstrate the ability to utilize the theoretical basis of
geology, to critically evaluate and analyze data and conclusions of others,
and to develop appropriate competence in communicating geologic information in
written and oral form.
Based on peer
student and faculty evaluation of oral and poster presentations for senior
seminar this past year, all students received averaged scores better than the
minimum 70% for both poster and oral presentations. The departmentally
developed rubric for this assessment instrument is designed such that a 70%
score would be the lowest “C” (lowest satisfactory score). To ensure
interrater reliability, all faculty were involved in determining student
grades.
Summary of Use
of Assessment for Program Building
Most students
are meeting learning objective criteria and major program changes do not
appear to be needed. Careful evaluation of assessment results, however, will
continue as specific areas in need of improvement can be identified. Because
of the small number of geology majors we typically have in our upper-level
classes where most of the assessment is occurring, statistical analysis of our
data in many instances is not yet meaningful. We continue to develop or
modified several assessment instruments that have or will highlight program
areas in need of change.
As stated in
objective 2, we are in the process of re-evaluating our field camp
requirement. This was a focus of a departmental retreat in December of 2004.
The potential effects of changing the field camp requirement has caused us to
closely evaluate the stages in the curriculum where certain skills are
introduced and reinforced (e.g. map and compass skills, field identification
of rocks and structures, field applications of technology, etc.).
In addition, we
are putting together an external advisory board composed of stakeholders from
government agencies, industry, and secondary education. The first meeting of
this board will be in either April or May 2005. One of the charges for this
board will be to examine our ideas generated at the retreat regarding program
changes.
Our evaluation
of areas where some students are not meeting the learning objective criteria
established by the department has led us to the concept of Universal Design
for learning. This concept, as applied to higher education,
is an
approach to teaching, learning and the development of curriculum, and
assessment that incorporates and encourages different individual learning
styles. The concept comes from the field of Architecture where it was
recognized that designing for the divergent needs of special populations
increases usability for everyone. For example, curb cuts, originally designed
to help those in wheel chairs also help those pushing carriages, riding
skateboards, pulling suitcases, or simply walking. Examples of our application
of Universal Design include color coded mineral chemistry notes and the use of
3-D structure models in Mineralogy, the posting of lecture notes in multiple
formats (i.e. accessible to text readers for those who learn audibly) in
Paleobiology, and the modular 3-part Field Course. As we implement “best
practices” of Universal Design, we anticipate that our Assessment methods,
instruments and potentially our Learning Objectives will change.
II. FACULTY AND STAKE HOLDER INVOLVEMENT:
All Earth
Science faculty and interested geology student majors/laboratory assistants
meet weekly. Initially, this was done to discuss our Blue Ribbon core courses
and the laboratory manual design and revision. This session has been expanded
to discuss, among other things, the curriculum and assessment issues. At each
meeting, following discussion of the status of our weekly introductory geology
laboratories, assessment (core and program) issues are discussed. Thus, all
Earth Science faculty members and some geology students have been active
participants in the development of the Geology program's assessment strategy
and implementation. The Geology Club is proving to be an active vehicle for
sharing assessment information with students.
Geology majors
have the opportunity to be active participants in the development and
implementation of the departmental assessment plan. Considerable student input
on curriculum design and connectedness is being derived from required student
portfolios in the Senior Seminar capstone class. Geology majors begin to
assemble this portfolio as soon as the major in geology is declared. Items
such as artifacts (exams, research papers, etc.) and reflective writing
(discussion strengths and weaknesses of the Geology Program) are included.
Portfolio guidelines and a grading rubric with criteria for evaluation of
portfolios are attached.
Faculty keep in
close contact with most alumni of the geology program (approximately 30 since
program inception) through work, professional meetings, and the annual
departmental picnic. Although formal survey instruments are very useful, we
feel we can gain more in-depth information concerning program satisfaction and
suggestions for program improvement with “interviews” of alumni. We found
through recent discussions with several alumni, particularly those who are not
practicing professional geologists or in graduate school, that they felt a
need for a more well-rounded liberal arts type education. These alumni have
not used many of the non-geology science courses required for a BS in geology
(e.g., two semesters of physics and chemistry plus labs, three semesters of
calculus/math) in their workplace. Based in this alumni input, Earth Science
faculty have decided to propose a BA degree in geology to better meet the
needs of this population of students. We are currently in the late planning
stage for this proposed new program. We feel that this is a good example of
how stakeholder involvement in the assessment process will make a significant
positive change in the Earth Science department’s curriculum.
In addition to
alumni interviews, an alumni survey form has been developed and will be
administered through the college-wide phone survey effort. This assessment
instrument will help us reach those alumni not in the central Arkansas area.
The goal of the survey is to assess the strong and weak points of the required
courses in the geology major and the students' overall satisfaction with the
degree program. A plan for employer evaluation of Geology graduates is also
being developed. It is expected that this will also be a part of the
college-wide phone survey effort.
III. APPROACH:
The educational
goals of the Geology Program are: 1) to develop basic critical thinking,
communication, technical, and teamwork skills, which are critical to any
chosen career path, 2) to provide academic preparation and to develop the
skills and competencies necessary for an entry-level position in the geologic
profession or for graduate studies in the Geosciences, and 3) to provide a
solid content background in the Earth Sciences and Integrated Sciences for
K-12 science teachers.
Secondary goals
of the Geology Program include the discovery, integration, and dissemination
of knowledge of geologic systems, use of this knowledge in ways that will
contribute to society through the application of faculty and student
resources, and the application of their research skills to the community,
state, and nation
These goals are
consistent with the Earth Science program's mission statement, which is to
encourage students to relate the geoscience disciplines to intelligent living
on Earth, to thoughtfully understand the interplay between humanity and the
earth, and to obtain a scientific understanding of the earth - its anatomy,
processes, resources, history, and potential future. The geology curriculum
provides a foundation of knowledge that allows the student to pass through
progressively higher, connected levels of understanding to achieve a
professional competence and to acquire the ability for professional growth
through life-long learning. After these experiences, the graduate will have
grown sufficiently in self-motivation to deal effectively with a constantly
changing and expanding professional environment.
This mission
statement is consistent with the stated mission of UALR, which includes
developing the intellect of students, discovering and disseminating knowledge,
and serving and strengthening society by enhancing awareness in the scientific
arena. The program "emphasizes the liberal education of undergraduate
students" by providing students an opportunity to understand the physical
earth on which all of humanity resides, and to explore the earth and life
through time. Like UALR, the Geology Program should instill a life-long desire
to learn, use knowledge in ways that will contribute to society, and apply its
resources and research skills to the service of the city, state, and nation.
The Geology
Program has the following five central student learning objectives:
-
Students will
be able to recognize and describe common minerals and rocks as well as some
minerals and rocks that are relatively uncommon but that are important
(e.g., in interpreting earth history, economically, etc.).
-
Students will
be able to make systematic scientific observations of rock samples,
outcrops, and stratigraphic sections, and interpret these observations using
sound scientific principles.
-
Students will
be able to recognize common invertebrate fossils, interpret the ancient
environment in which the fossil lived, and assess their utility as
indicators of geologic time.
-
Students will
be able to construct and interpret geologic maps and geologic
cross-sections, evaluate models of geometry of rock units at depth, and
graphically present surface and subsurface geologic and topographic data.
-
Students will
demonstrate the ability to utilize the theoretical basis of geology, to
critically evaluate and analyze data and conclusions of others, and to
develop appropriate competence in communicating geologic information in
written and oral form.
We believe that
the strengths of our assessment plan are the well-focused, measurable learning
objectives, and the use of multiple measurements of each objective. Our
primary weakness stems from the small number of geology majors we typically
have in our upper-level classes where most of the assessment is occurring. We
have found that statistical analysis of our data from just a small number of
students is not meaningful; therefore it is difficult to make decisions
concerning program changes. This has made it difficult to “close the feedback
loop” in some areas.
Objectives 1
through 5 were addressed this year. A schedule showing a timeframe of
assessment activities is shown below.
Click to see Schedule
Methods used to measure assessed objectives:
Objective 1-
Students will be able to recognize and describe common minerals and rocks as
well as some minerals and rocks that are relatively uncommon but that are
important (e.g., in interpreting earth history, economically, etc.).
This skill is
first introduced in Physical Geology laboratory (ERSC 1102), but assessment of
this objective occurs primarily in upper level laboratory courses. The primary
means of assessment are the laboratory final exams in Mineralogy (ERSC 2320),
Igneous and Metamorphic Petrology (ERSC 3311), and Sedimentology (ERSC 3350).
Rock and mineral identification are also assessed in a component of Field Camp
described in Objective 2 below. The laboratory exams emphasize mineral and
rock identification. Exams are used to assess this objective because they
directly correspond to the learning objective and can be easily quantified. A
minimum score of 70% on each of the exams is considered acceptable for meeting
this objective. The rubrics for this exam are designed such that a 70% score
would be the lowest “C” (lowest satisfactory score). The objective nature of
this exam minimizes reliability issues.
Objective 2
- Students will be able to make systematic scientific observations of rock
samples, outcrops, and stratigraphic sections, and interpret these
observations using sound scientific principles.
Objective 2 is
also assessed during ERSC 4626, Field Geology, a required six-week summer
geology field course/camp that is required before graduation. Students
generally take this course after their Junior year (structural Geology is a
prerequisite) or just prior to graduation in their senior year. Field Geology,
like Senior Seminar, is considered a capstone course. It is in this course
that the students must utilize information acquired in all major courses and
synthesize it to complete several geologic mapping projects and interpret
geologic settings and histories of real areas. Students typically take this
course through another university (some enroll at UA-Fayetteville's course in
Dillon, Montana). This capstone course therefore functions to provide us with
an external assessment of our students by non-UALR faculty and a comparison to
students in other universities that also take this course (several
universities are generally represented at each field camp). An additional
assessment form was developed to be given to the appropriate field geology
faculty following the field geology courses. This form provides information
concerning student performance in specific areas (e.g., mapping, interpreting
structures, petrology, stratigraphy, etc.) than an overall course grade
provides. A "C" in this course and an average score of 3 or below on the
external faculty assessment form is considered the minimum acceptable grade
for meeting this objective. Validity of this assessment instrument is
addressed by the fact that students must receive departmental approval for the
field camp that they sign up for. Reliability is addressed by a comparison
with the students overall GPA with the grade received in field camp. Overall
GPA of all program graduates is 3.1. (we have not yet calculated geology GPA
of students). Field camp GPA is just slightly higher but comparable at 3.4.
Objective 3
- Students will be able to recognize common invertebrate fossils, interpret
the ancient environment in which the fossil lived, and assess their utility as
indicators of geologic time.
This objective
is assessed primarily during the laboratory final exam in ERSC 3360,
Paleobiology, a required course taken during the student's sophomore or junior
year. An exam is used to assess this objective because it directly corresponds
to the learning objective and can be easily quantified. Students are required
to identify the fossil (Phylum, Class, and Order typically), provide an age
range, and provide additional information on morphology, preservation, etc. A
minimum score of 70% on this exam is considered acceptable for meeting this
objective. The departmentally developed rubric for this exam is designed such
that a 70% score would be the lowest “C” (lowest satisfactory score). The
objective nature of this exam minimizes reliability issues.
In the past,
Objective 3 was also assessed externally using student performance on the
paleontology content area of the Area Concentration Achievement Test (ACAT) in
Geology. We have discontinued use of the ACAT because this exam was designed
to be a comparison against a national sample of similar departments.
Decreasing participation and outdated content caused us to discontinue using
this assessment tool. We are presently exploring using other external
assessment in place of the ACAT. The most promising is the fundamental geology
portion of the Association of State Boards of Geologists (ASBOG) exam. We are
currently in discussions with ASBOG and the Geology program at Mississippi
State University (MSU). MSU has adopted use of the ASBOG as a key component of
their program assessment. We hope to be able to use the ASBOG effectively in
our external assessment in the near future.
Objective 4
- Students will be able to construct and interpret geologic maps and geologic
cross-sections, evaluate models of geometry of rock units at depth, and
graphically present surface and subsurface geologic and topographic data.
This objective
is assessed at three stages in the geology major's undergraduate career, all
of which are required for graduation. Students are first exposed to geologic
mapping and cross-section construction during ERSC 2320, Geologic Methods.
This course, an outgrowth of UALR's "Reforming the Major" project, is usually
taken during the student's sophomore year. Students spend several weeks
learning basic map and field techniques, including geologic mapping. Cross
sections depicting subsurface structure are then constructed based on the
geologic map. As a final project, maps, cross sections, stratigraphy, and the
geologic history of an area are then presented in poster format and evaluated
by peers and faculty. The evaluation form used to assess this objective is
attached. This evaluation form was developed with the consensus of all Earth
Science faculty thus addressing the validity of this instrument. Reliability
is addressed through examining the “spread” of the ratings. Because there has
not been a large spread in faculty ratings, reliability between raters appears
to be high. A score of 70% on the evaluation form is considered the minimum
acceptable for meeting this objective.
Objective 4 is
also assessed in the laboratory portion of ERSC 3330, Structural Geology,
where more complex maps, cross sections, and other structures are introduced.
This required course is usually taken during a student’s junior year.
Throughout the semester, students solve various laboratory exercises
(including more sophisticated methods of cross-section construction) related
to a geologic map. Near the end of the semester, students synthesize this
information into a written summary of the geologic and structural history of
an area. A score of 70% on this structural synthesis assignment is considered
the minimum acceptable for meeting this objective.
Objective 4 is
also assessed during ERSC 4626, Field Geology, which is discussed in detail
above under Objective 2.
Objective 5
- Students will demonstrate the ability to utilize the theoretical basis of
geology, to critically evaluate and analyze data and conclusions of others,
and to develop appropriate competence in communicating geologic information in
written and oral form.
This objective
is taught at all stages of a geology major’s undergraduate career, but is
assessed primarily during ERSC 4190, Senior Seminar, a required capstone
course in the Earth Science curriculum. Senior seminar is usually taken after
completion of all required geology courses. One component of Senior Seminar is
an original research project defined and agreed upon in advance with the
instructor coupled with a written report and oral report or poster session
presentation. Research is considered a very important component of assessment
as it requires students to use skills that they are expected to acquire in the
geology program such as library research, field techniques, laboratory
techniques, data analysis and evaluation, use of the scientific method, and
effective written and oral communication. The product of this research is
rated by departmental faculty and peer students. A score of 70% on the oral or
poster evaluation form is considered the minimum acceptable for meeting this
objective.
Student research
reporting and presentation occurs in the department's Geology Colloquium held
twice annually. All students enrolled in the required Senior Seminar
participate in the Colloquium. Our students have seen professional seminars
the previous four years where they observe appropriate presentation techniques
by professional scientists and other students. The installation of the poster
session format as an assessment tool (final) in the new Geologic Methods
Course (ERSC 2320) expands the techniques available to evaluate student
projects and undergraduate research methodology used on the road to Senior
Seminar. A copy of a revised evaluation form for Geologic Methods posters is
attached. Validity is addressed through
complete faculty involvement in the development of the evaluation forms.
Reliability is addressed by having all faculty, including guest faculty from
related disciplines and community geologists not on the UALR faculty, evaluate
all of the student poster and oral presentations.
In addition to
the colloquium, students commonly present Senior Seminar projects or other
independent research results at professional meetings, including the
Geological Society of America, the Arkansas Undergraduate Research Conference,
and the Arkansas Academy of Science.
Assessment
Tools
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