Georgia State University
Annual Student Learning Outcomes Assessment
Report
Due to the A&S Dean’s Office Aug. 19, 2005
Unit Name ______Biology_________________________
Prepared by __Barbara Baumstark___________________,
Date ___9/10/05__________
Academic
Year: 2004-2005
|
III. Changes to
Procedures or Curriculum Based on Assessment |
|
|
II. Achievement
of Departmental Objectives for Students A. Undergraduate--
|
A.
Outcomes
assessed
The
outcomes assessed correspond to the Learning Outcomes proposed as part of
the Department of Biology’s Assessment
Plan submitted to the University (July, 2004).
These comprise the following four standards (the complete copy of the
assessment plan is attached):
Standard 1: Scientific Inquiry
Standard 2: Communication
Standard 3: History, Nature and Impact of Biology
Standard 4: Content in Biology
B. Elements of assessment
The courses offered by the
Department were divided into four divisions and each division was evaluated by
an independent committee of three faculty members. These divisions, and the faculty members of the committees (listed
in parentheses), were:
1.
2000-level introductory
biology (Baumstark, Eilertson, Said)
2.
2000-level and
3000-level gateway courses (El-Mayas, Poole, Zellars)
3.
4000-level
upper division undergraduate (Attanasio, Clancy, Said)
4.
Graduate level
(Frey, Pierce, Walthall)
C. Data collected
Selected course assignments
were identified that addressed subcategories of Standards 1-4 above. Examples of student work on these
assignments were evaluated to determine how many students met or exceeded the
specific criteria that had been set as evidence of mastery of the concept being
measured. The findings of each
committee are itemized in Appendix II.
D. Data Analysis
Summaries of the undergraduate and graduate statistics are given below
(Tables 1a and 1b, respectively)
Table
1a.
Summary
of Undergraduate Statistics*
|
|
Biol 2107 |
Biol 2108 |
Biol 2800 |
Biol 3800 |
Biol 3810 |
Biol 3900 |
Biol 4102 |
Biol 4115 |
Biol 4240 |
Biol 4278 |
Biol 6930 |
|
Std 1: Scientific Inquiry |
|
|
|
|
|
|
|
|
|
|
|
|
.1 Ask scientific questions... |
86% |
91% |
|
|
95% |
|
|
|
|
|
|
|
.2 Design investigations... |
86% |
91% |
|
|
|
|
|
|
|
|
|
|
.3a Use lab equipment... |
86% |
91% |
95% |
|
72% |
|
|
|
|
|
|
|
.3b Use computers... |
86% |
91% |
|
|
|
|
|
|
|
80% |
|
|
.4 Analyze
results... |
86% 79% |
91% 92% |
|
|
72% 85% 95% |
|
95% |
|
78% |
70% |
|
|
.5 Formulate alt. explanation |
86% |
|
|
|
95% |
|
|
|
|
|
|
|
.6 Solve problems.... |
86% 72% |
92% |
|
83% 64% |
95% |
|
|
|
|
|
73% |
|
Std 2: Communication |
|
|
|
|
|
|
|
|
|
|
|
|
.1 Oral and written... |
91% 90% 72% |
91% 71% |
|
|
95% 50% |
|
|
|
|
70% 80% |
73% |
|
.2 Read literature... |
91% |
91% 71% |
|
|
|
|
|
|
|
70% 80% |
|
|
.3 Critique... |
91% |
91% |
|
|
|
|
|
|
|
70% 80% |
|
|
.4 Scientific terminology... |
91% |
91% |
|
|
|
|
76% |
69% 90% 76% |
80% 68% |
70% |
|
|
.5 Group situations... |
91% |
|
|
|
50% |
|
|
|
|
80% |
|
|
Std 3: History, Impact |
|
|
|
|
|
|
|
|
|
|
|
|
.1 Changes in theories... |
|
|
|
|
|
|
95% |
|
|
|
|
|
.2 Other influences... |
|
|
|
|
|
|
|
|
|
|
|
|
Std 4: Content |
|
|
|
|
|
|
|
|
|
|
|
|
.1 Other disciplines... |
|
71% |
95% |
|
72% 85% |
|
|
|
|
|
|
|
.2a Molecular processes |
72% 72% |
|
95% 85% |
86%87% |
72% 85% |
80% |
|
|
|
70% |
73% |
|
.2b Cell structure/function |
|
90% |
|
|
|
|
|
|
|
75% |
|
|
.2c Reproduction/heredity |
72% |
79% |
95% |
64% 87% |
72% |
80% |
|
|
78% 80% 68% |
|
|
|
.2d Evolution/diversity |
|
71% |
95% |
|
|
|
95% |
|
|
|
|
|
.2e Organism form/function |
|
71% 79% |
|
87% |
|
|
95% 76% 73% |
69% 90% 76% |
78% 80% 68% |
|
|
|
.2f Organisms/environment |
72% |
71% |
|
|
|
|
|
|
|
|
73% |
% indicates the numbers of students who were
considered to have performed at an acceptable level (70% or above) on the
specific assignment used for assessment (Appendix II)
Table
1b.
Summary
of Graduate Statistics*
|
|
Biol 9999 (n=5) |
Biol 8800 (n=6) |
|
I. Scientific Inquiry |
3.5 |
3.4 |
|
II. Analytical Skills |
3.4 |
3.5 |
|
III. Communication Skills |
3.3 |
3.6 |
|
IV. History, Nature and Impact
of Biology |
na |
na |
|
V. Content – Acquisition of Knowledge |
3.3 |
3.5 |
|
VI. Advancement of Knowledge |
3.2 |
3.4 |
|
|
|
|
*Research papers submitted in
fulfillment of the Biol 9999 (doctoral) and Biol 8800 (M.S.) requirements were
evaluated by a 3-member faculty committee.
The evaluation scores indicate the following: 4-strong emphasis; 3-emphasis; 2-addressed; 1 minimal.
II. Achievement of Departmental
Objectives for Students
The information summarized in Table 1a indicates that for over 90% of the
outcomes measured, >70% of the students met or exceeded the expectations set
by the relevant faculty committee. In
addition, nearly all of the outcome items were assessed by at least one
assignment. The one exception to this
was a general lack of assessment items addressing Standard 3 (History, Nature
and Impact of Biology). There were
also relatively few materials addressing scientific inquiry, at least at the
senior upper division level. The lack
of assignments covering these two areas may simply reflect the fact that the
courses offered in the summer semester (from which these materials were
collected) are a small subset of our usual course offerings and may not address
all outcomes covered by our general curriculum. Alternatively, the assessment choices made by the relevant
committees may not have included as many history- or inquiry-based assignments
as were available within a given class.
B. Graduate
The conclusion of the graduate committee was
that all students from the assessment subset scored a 3 or better in all areas that
were assessed, thus meeting or exceeding the requirements set for mastery. The graduate committee did not address
Standard 3 (History, Nature and Impact of Biology), concluding that it did not
reflect a criterion relevant to the assignment that was evaluated.
III.
Changes to Procedures or Curriculum Based on Assessment
A. Undergraduate
A major limitation of the results obtained
during this assessment round was the fact that it only dealt with courses
offered in the summer semester. This
limitation can be offset in the semesters that take place in the academic year,
when nearly all courses in the curriculum will be offered at least once. Faculty are also aware of the need to
include assessment items that address each of the standards, and as such are
more likely to include these items as part of their classroom assignments. One course that was not assessed during the
summer, but that would be very valuable to include in further assessment
rounds, is Biol 4910 (Undergraduate Research).
Students taking this course submit summary reports at the end of each
semester. These could be evaluated in a
manner similar to that which is being used by the graduate committee to
evaluate graduate student research reports.
B. Graduate
One item that would be very beneficial to
include in the assessment of our graduate student research efforts is an
evaluation of the final products:
theses and dissertations, along with their oral presentations, and non-thesis
research papers. This would involve
the following additional assessment activities:
1)
Readers of non-thesis research papers should fill out an evaluation form
that includes assessment items for each learning outcome that is relevant to
the specific paper being scored.
2)
Thesis and dissertation convenors should score the presentation they
convene.
3) Members of the evaluation committee should
attend selected thesis and dissertation presentations during the year and
provide an assessment of the presentation.
IV. Changes in Department’s Assessment Goals
A review of the materials that were assessed revealed a lack of assignments dealing with two Standard 1 (at least at the upper division) and Standard 3. It is our view that assignments requiring skills summarized in Standard 1 (Scientific Inquiry) are being offered in many upper division courses, but may not have been available during the summer semester, or may not have been specifically chosen by the relevant committee for assessment. We will make an effort to identify such assignments in our upper division courses during the fall and spring semesters. Furthermore, we believe that information pertaining to Standard 3 (History, Nature and Impact of Biology) is being provided in many courses. However, it is possible that faculty members are not including assignments in their courses that assess student understanding of this area. We will initiate faculty discussion to determine whether this standard should remain as a stand-alone learning outcome, or whether it should be folded into one of the other standards.
APPENDIX I
LEARNING OUTCOMES
Standard 1: Scientific Inquiry
Students will be able to:
1.1
Ask scientific
questions and construct reasonable hypotheses
1.2
Design and
conduct investigations about a variety of biological problems
1.3
Perform
laboratory skills and procedures
1.3a. Use
basic equipment in laboratory courses
1.3b. Use
computers for data analysis, literature searches and retrieval of data from
reliable databases
1.4 Understand and analyze results
(hypothetical or actual)
1.5 Formulate and defend
alternative explanations and models on the basis of evidence
1.6 Solve problems addressing
biological questions
Standard 2:
Communication
Students will be able to:
2.1 Communicate effectively in oral and
written forms
2.2 Read and demonstrate an understanding of
scientific literature for content
2.3 Critique and analyze claims of others in
a scientific context
2.4 Demonstrate an understanding of
scientific terminology
2.5 Work effectively in group situations
Standard 3: History, Nature and Impact of Biology
Students will be able to:
3.1 Discuss
historical changes in biological theories over time
3.2 Analyze how the political, social,
economic and cultural influences exert an impact on biological concepts
Standard 4: Content in Biology
Students will be able to:
4.1 Apply knowledge
from other scientific disciplines to the understanding of fundamental biological principles
4.2 Demonstrate knowledge of the following
general principles of biology, including their applications and relationships
4.2a Molecular processes
4.2b Cell structure and function
4.2c Reproduction and heredity
4.2d Evolution and diversity
4.2e Organismal form and function
4.2f Interdependence of organisms and their
environment
APPENDIX II
SPECIFIC ASSIGNMENTS ASSESSED*
Committee
#1. 2000-level Introductory Biology.
Courses assessed: Biol 2107K and 2108K (Principles of Biology
for Majors). Summer, 2005 semester.
Course type: required introductory course for majors
Standard 1. Scientific Inquiry (Standards 1.1, 1.2, 1.3, 1.4, 1.5, 1.6)
Evaluation was based on the
following two methods of assessment.
a.
Laboratory examinations.
Examinations were given at the middle and end of the semester. These consisted of questions designed
specifically to assess the students’ ability to: formulate hypotheses and design experiments to test them; analyze
and interpret data; solve quantitative problems; and understand the principles
underlying specific laboratory procedures.
Answers were written in essay form or submitted as calculations. Examinations were graded by teaching
assistants, who were provided with rubrics to assist in scoring. Based on the evaluation of selected scored
exams, the faculty committee concluded that the scoring methodology was
equitably administered. Students were considered to have been successful in
meeting this standard if they received a score of 72% or higher.
Results: 2107K: 86% of the students met or exceeded the requirements
(N = 50).
2108K: 91% of the students met or exceeded the
requirements. (N = 34)
b.
Critical thinking assessment.
Because of the requirement that biology monitor the critical thinking
skills of those students (majors and non-majors) fulfilling their general
education requirements, students were also given a critical thinking assessment
test. This test consisted of a
3-question examination given at the beginning and end of each course. The questions measured students’ ability to
evaluate evidence and solve problems under conditions that did not require
previously obtained biology content information. Students were not told about the test beforehand, and were given
a time limit of 15 minutes to complete the test. A graduate student was assigned the task of grading all critical
thinking assessment exams. Students were considered to have fulfilled the
critical thinking requirements if they received at least 2/3 of the points
listed on the scoring rubric. The
questions, the rubrics and sample examinations were reviewed by faculty, who
concluded that the terms of assessment were being met.
Results: 2107K: 79% of the students met or exceeded the
requirement.
2108K: 92% of the students met or exceeded the
requirement.
Standard 2: Communication
Written and oral communication
skills were addressed as follows:
a.
Written communication skills.
Students were required to submit an individually written laboratory
report demonstrating the ability to form a hypothesis and design experiments to
test it, an understanding of the content information underlying the experiments
they conducted, an analysis of the data they collected, and a discussion of the
significance of their findings. The
topics for the two courses were:
analysis of nitrate levels from environmental sources (Biol 2107K); and
determination of the effect on plant growth of exogenously applied hormones and
soil conditions (Biol 2108K).
Laboratory reports were assessed on a 25-point scale by the laboratory
teaching assistant according to a pre-determined rubric. Students were required to submit a
preliminary draft, which was read by the teaching assistant and returned with
suggestions for improvement. Students
were then assigned a score on their corrected submission. Selected examples were assessed by faculty
and found to be acceptable with respect to scoring consistency. To meet the requirements for written
communication, students were expected to receive a score of 18/25 (72%) or
higher.
Results: 2107K: 91% of the students met or exceeded the
requirements.
2108K: 91% of the students met or exceeded the
requirements.
b.
Oral communication skills.
Students were required to work in groups to prepare and present an oral
presentation summarizing an experiment conducted in the laboratory. Students were evaluated on a 5-point scale
by the laboratory teaching assistant and their fellow students. Students were regarded as having
satisfactorily met this standard if they received 4 or more (80%) of the 5
possible points.
Results: 2107K:
90% of the students met or exceeded the requirements.
Standards addressed: Standards
2.1, 2.2, 2.3, 2.4, 2.5; also Standards 1.1, 1.3b, 1.4
Standard 4. Content in Biology
The committee selected a
subset of examination questions or other assignments that specifically
addressed one or more of the content items listed in Standard 4. They then determined the acceptable score
based on the perceived difficulty of the question. The results are itemized below:
a.
Question 1.
An exceedingly
sensitive instrument (yet to be designed) showed that one of the carbon atoms
in Elvis Presley’s dinner steak of July 21, 1977, was released in has last
breath at his Memphis home, Graceland, on August 16, 1977. The instrument has just shown today that
this same carbon atom is currently residing in a protein within the connective
tissues of your vocal chord. Suggest
how this carbon atom might have traveled fro Elvis to you, and list all of the
molecules and the detailed metabolic pathways it could have entered on its way.
Standards addressed: 1.6, 2.1,
4.2a, 4.2f.
Results: 72% of the students met or exceeded the
acceptable score (80%).
b.
Question 2.
You are to pick one
homeostatic regulatory mechanism and discuss how it operates in two different
animals, i.e., how blood pressure is regulated in sparrows vs. iguanas or how
temperature is regulated in humans vs. garter snakes (you can pick the
species). Your paper should be at least
two pages in length and must have a reference section. All statements, other than your own
opinions, must be supported by a citation.
Your paper must include a graph pertaining to your specific topic – not
a table or a picture – that contains data from the primary literature. Your discussion must include an analysis if
the material in this graph.
Standards addressed: 2.1, 2.2,
4.1, 4.2d, 4.2e, 4.2f
Results: 71% of the students met or exceeded the
acceptable score (70%).
c.
Additional
short-answer questions on specific content topics resulted in the following
student performance:
Standard
4.2a. Molecular
processes (e.g., Rubisco, pyruvate dehydrogenase activity)
Results: 72% obtained the correct
answer
4.2b. Cell
structure (e.g., sarcoplasmic reticulum)
Results: 90% obtained the correct
answer
4.2c. Reproduction
and heredity (hormonal mechanism of birth control)
Results: 79% obtained the correct
answer
4.2c. Reproduction
and heredity (elements of gene expression)
Results: 72% obtained the correct
answer
4.2e. Organismal
form and function (nephron function)
Results: 79% obtained the correct
answer
Committee
#2: 2000-level and 3000-level gateway
courses
Assignments were chosen for their alignment with specific standards and a
score of 70% was agreed upon as an acceptable criterion for student mastery.
Assignment #1.
Course from which assignment was derived: Biol 2800 (Introduction to Molecular Biology)
Course type: one of seven courses
that can fulfill Area F requirements.
1a. Students need to show that whales are more closely related to
mammals than fish, using protein sequence analysis. Students use a protein database to find the sequences for two
different proteins in whales, two mammals and two fish species. Students align the sequences using alignment
tools.
1b. Students are given the name of a gene (MutS) and need to find out
what protein it codes for, what the function of the protein is, what diseases
result from a mutation in the gene, the chromosome where the gene is located,
the number of nucleotides in the gene and amino acids in the protein, and a
recent paper (2003-2005) that involved the gene.
Standards addressed:
1.3b. Use computers for data
analysis. . .
4.1. Apply knowledge from other scientific
disciplines. . .
4.2a. Molecular processes
4.2c. Reproduction and heredity
4.2d. Evolution and diversity
Results: 95% of students met or exceeded the
criterion for mastery.
Assignment #2.
Course from which assignment was derived: Biol 2800 (Introduction to Molecular Biology)
Course type: one of seven courses
that can fulfill Area F requirements.
a.
Make a diagram
of a bacterial chromosome and indicate where the origin of replication is
located
b.
What types of
sequences would you expect to see at or near the origin? Why?
c.
Do you expect
prokaryotes or eukaryotes to have more origins of replication? Why?
Standards addressed:
4.2a. Molecular processes
Results: 85% of students met or exceeded the criterion
for mastery.
Assignment #3.
Course from which assignment was derived: Biol 3800 (Molecular Cell Biology)
Course type: required of all
majors
Given diagrams of the TCA and
Fatty Acid Cycles, students answered the following questions:
a.
Through what
molecule do carbons from fatty acids enter the TCA cycle?
b.
How many ATP
could be formed each time 2 carbons from the fatty acid cycle enter the TCA
cycle?
c.
How many ATP
could be formed if the fatty acid has 16 carbons in its chain?
Standards addressed:
1.6 Solve problems addressing
biological questions
4.2a. Molecular processes
Results: 83% of students met or exceeded the
criterion for mastery.
Assignment #4.
Course from which assignment was derived: Biol 3800 (Molecular Cell Biology)
Course type: required of all
majors
An mRNA of the sequence
AUGUUUUUUUUUUUUUAG produces the following polypeptide in a cell free
system: fmet-phe-phe-phe-phe. A new antibiotic has been discovered that
interferes with the translation process.
This antibiotic has been given the name releomycin. When this antibiotic is added to the cell
free system, no free polypeptide is observed.
However, further investigation reveals that the polypeptide
(fmet-phe-phe-phe-phe-phe) and the mRNA molecule are still attached to the
intact ribosomes. Which step and what
factor(s) in the translation process might this antibiotic affect? Why?
Standards addressed: 1.6. Solve problems addressing biological
questions.
4.2c. Reproduction and heredity
Results: 64% of students met or exceeded the
criterion for mastery.
Assignment #5.
Course from which assignment was derived: Biol 3800 (Molecular Cell Biology)
Course type: required of all
majors
Given a diagram of the protein kinase activation cascade in the liver,
students answered the following questions.
a.
What might be
the effect on liver function of a mutation in the gene that encodes the cAMP
phosphodiesterase?
b.
What might be
the effect on liver function of a mutation in a gene encoding a glucagon
receptor?
c.
What might be
the effect on liver function of a mutation in a gene encoding a phosphorylase
kinase?
d.
What might be
the effect on liver function of a mutation that alters the active site of the
GTPase of a G subunit? (assume in all cases that the mutation causes a loss of
function of the gene product).
Standards addressed:
4.2a. Molecular processes
4.2c. Reproduction and heredity
4.2e. Organismal form and function
Results: 87% of students met or exceeded the
criterion for mastery.
Assignment #6.
Course from which assignment was derived: Biol 3810 (Molecular Cell Biology Laboratory)
Course type: required of all
majors
Students are given two
solutions and told to figure out which is DNA and which is protein using a
spectrophotometer. They need to dilute
each solution, set the spectrophotometer to the correct wavelength(s), read OD
values, and use a standard curve to calculate DNA concentration for the DNA
sample.
Standard addressed: 1.3a:
Use basic equipment in laboratory courses
1.4 Understand
and analyze results
4.1: Apply knowledge from other disciplines
4.2a
Molecular
processes
4.2c Heredity
Results: 72% of the students met or exceeded the
criterion for mastery
Assignment #7.
Course from which assignment was derived: Biol 3810 (Molecular Cell Biology Laboratory)
Course type: required of all
majors
Given a diagram of an SDS-PAGE
gel, students answered the following questions.
a. Circle the band in one of the sample lanes
that might be a 39KD protein
b. Which lanes contain the
largest subunit of Rubisco? Explain
your reasoning.
c. What effects might you expect
to see if no SDS or reducing agent were added to the loading buffer?
d. What property of proteins was
being used when you tried to separate proteins using the ion exchange columns?
Standards addressed:
1.4. Understand and analyze
results. . .
4.1.
Apply knowledge
from other scientific disciplines. . .
4.2a. Molecular processes
Results: 85% of students met or exceeded the
criterion for mastery.
Assignment #8.
Course from which assignment was derived: Biol 3810 (Molecular Cell Biology Laboratory)
Course type: required of all
majors
Students perform lab
experiments in groups of 3-4. All
students must write two individual lab reports containing Abstract,
Introduction, Methods, Results and Conclusions. Students are given feedback and a chance to rewrite their first
lab report. In addition, each group of
students presents their results and conclusions to the class using Powerpoint
slides.
Standards addressed:
1.1 Ask scientific questions and form reasonable
hypotheses
1.4 Understand and analyze results
1.5 Formulate and defend alternative
explanations
1.6 Solve problems
2.1 Communicate effectively in oral and written
forms
2.5
Work
effectively in group situations
Results: Lab
reports: 95% of students met or
exceeded the criterion for mastery.
Presentations: 50% of students met or exceeded the
criterion for mastery.
Assignment #9.
Course from which assignment
was derived: Biol 3900 (Genetics)
Course type: required of all majors
In Cystic Fibrosis (CF), the
most common mutation is the dF508. The
D508 mutation is a three base pair deletion that ultimately results in the
deletion of a phenylalanine at position 508 in the protein. However, another mutation, IVS8-5T, has been
located to intron 8. This mutation
would not be expected to affect the coding sequences (exons), but nevertheless
causes CF.
a.
What essential
function might be affected?
b.
How might this
aberrant function lead to CF? Be
specific.
Standards addressed:
4.2a. Molecular processes
4.2c. Reproduction and heredity
Results: 80% of student met or exceeded the criterion
for mastery.
Committee
#3: 4000-level upper division
undergraduate
A subset of 4000-level courses covering several areas of focus within the
biology department was selected for analysis.
The specific courses were: Biol
4278 (Immunology), Biol 4102 (Fundamentals of Neurobiology), Biol 4115 (Medical
Neuroanatomy), Biol 4240 (Endocrinology), and Biol 4930 (Parasitology). Students were assessed as having met the
criteria for mastery if they scored 70% or higher on the questions.
Biol 4278. Immunology
Course type: One of several
options for meeting Area G or Area F.
Designated as a writing intensive course.
Assignment #1.
After attending library
instruction, students choose an immunology topic that represents the basis of
oral and poster presentations. To prepare these presentations, students
carefully search medical databases for recent review and research articles
focusing on the specific topic and, after reading the abstracts, select the
articles most appropriate for preparing their presentations.
Standards addressed:
1.3b. Use computers for data
analysis, literature searches and retrieval of data from reliable
databases.
Results: 80% of students met or exceeded the criteria
for mastery.
Assignment #2.
1. This course includes several written exams and a major project
based on oral and poster presentations.
All written exams are essay-type.
The majority of exams requires that students read an entire recent research
article in class, write an abstract of it, and answer questions related to the
article. Examples of questions
are: 1) In this study, the
investigators use a form of immunization called passive immunization. Do you expect the generation of memory responses
in response to passive immunization?
Explain your answer. 2) What is the purpose of this study? 3)
Why did the investigators use neutralizing monoclonal antibodies as
compared to non-neutralizing monoclonal antibodies? 4) Figure 1 describes the
experimental design developed for this study.
Why are the monkeys in (B) and (D) necessary for the correct
interpretation of the results described in this study?
2. To prepare oral and poster presentations, students are assigned
to a group that includes an average of 4 individuals. Working in a team setting, students first read review articles to
familiarize themselves with the specific immunology topic and then read,
analyze and critique several research articles on the same topic. Information from several articles is
combined together to provide a brief and updated summary on the current
scientific knowledge, making sure to point out differences in results and
interpretation from different articles.
Posters are presented and discussed with a “lay” audience, therefore
ensuring that students understand and communicate effectively. The final product is based on several
revisions made with continuous input and feedback provided by the instructor,
writing consultants and the other students in the class.
Standards addressed: 1.4 Understand and analyze results
2.1. Communicate effective in oral and written
forms
2.2.
Read and
demonstrate an understanding of scientific literature. . .
2.3.
Critique and
analyze claims of others in a scientific context
2.4.
Demonstrate an
understanding of scientific terminology
2.5.
Work
effectively in group situations
Results: Part
1. 70% of students met or exceeded the
criteria for mastery
Part 2. 80% of students met or exceeded the criteria
for mastery
Assignment #3. Examination
questions.
a.
Why are the
processes of somatic hypermutation and affinity maturation necessary for
effective immune responses? Is affinity
maturation possible in absence of somatic hypermutation? Why?
Standard addressed:
4.2a. Molecular processes
Results: 70% of students met or exceeded the
criterion for mastery
b. How is the immune response affected in individuals with deletions
of the genes that encode i) MHC class II molecules? ii) TAP1/TAP2
molecules? iii) B7 molecules? iv) CTLA4 molecules?
Standard addressed:
4.2b. Cell structure and
heredity
Results: 75% of students met or exceeded the
criterion for mastery
Biol 4102. Fundamentals of Neurobiology
Assignment #1.
What clinical observations led
to the concept that specific parts of the brain (cortex) perform unique
functions (such as speech)?
Standards addressed: 1.4.
Understand and analyze results
3.1a. Discuss changes in biological theories over
time
4.2d. Evolution and diversity
4.2e. Organismal form and function
Results: 95% of students met or exceeded the
criterion for mastery
Assignment #2.
What is mind/brain dichotomy?
Standards addressed: 2.4.
Demonstrate an understanding of scientific terminology
4.2e.
Organismal form and function
Results: 76% of students met or exceeded the
criterion for mastery
Assignment #3.
What are the similarities or
differences between gray matter and white matter of the brain?
Standards addressed: 4.2e. Organismal form and function
Results: 73% of students met or exceeded the
criterion for mastery
Biol 4115. Medical Neuroanatomy
Assignment #1.
a. What causes hydrocephalus?
b. What is the clinical
significance of the Circle of Willis?
c. What specialized vascular structures (often near the bones of the
skull) serve as sites where venous blood “pools” before entering the general
venous return?
Standards addressed: 2.4. Demonstrate an understanding of scientific
terminology
4.2e.
Organismal form and function
Results: a. 69% of students met or exceeded the
criterion for mastery
b. 90% of students met or exceeded the
criterion for mastery
c. 76% of students met or exceeded the
criterion for mastery
Biol 4240. Endocrinology.
Assignment #1.
What experimental observations
suggest that potent metabolites of testosterone are required for
masculinization of the human external genitalia? What are these metabolites?
Standards addressed: 1.4. Understand and analyze results
4.2c. Reproduction and heredity
4.2e. Organismal form and function
Results: 78% of students met or exceeded the
criterion for mastery
Assignment #2.
How are true hermaphrodites
different from pseudohermaphrodites?
Standards addressed: 2.4. Understanding of scientific terminology
4.2c. Reproduction and heredity
4.2e. Organismal form and function
Results: 80% of students met or exceeded the
criterion for mastery
Assignment #3.
Describe the composition of
the mammalian indifferent gonad. What
are its major subdivisions and what is the fate of each of these subdivisions?
Standards addressed: 2.4. Understanding of scientific terminology
4.2c. Reproduction and heredity
4.2e. Organismal form and function
Results: 68% of students met or exceeded the
criterion for mastery
Biol 4930. Parasitology.
Assignment:
You (wearing your parasite’s hat) are to
present your bizarre and incredibly successful parasitic life cycle.
Describe how good you are at killing off your host and passing from host to
host. Describe the fight between you and your host's immune system.
Standards addressed 1.6. Solving problems addressing biological
questions
2.1
Communication in written and oral forms
4.2a. Molecular processes
4.2f. Interdependence of organisms and their
environment
Results: 73% of students met or exceeded the
criterion for mastery
Committee
#4. Graduate level courses
Selected Graduate Reports
submitted in fulfillment of the requirements for Biol 9999 (doctoral students)
and Biol 8800 (M.S. students only) from the Summer 2005 semester were reviewed
and critiqued by a panel composed of three Research faculty members, using a
4-point scoring system with six criteria judged. The mean scores for the 6 criteria are provided in the table
below.
History of biology was not
graded as this criterion was not a required element of the graduate
reports. Scoring was as follows:
4 - strong
emphasis
3 - emphasis
2 - addressed
1 minimal
|
|
9999 |
8800 |
|
I. Scientific Inquiry |
3.5 |
3.4 |
|
II. Analytical Skills |
3.4 |
3.5 |
|
III. Communication Skills |
3.3 |
3.6 |
|
IV. History, Nature and Impact
of Biology |
na |
na |
|
V. Content – Acquisition of Knowledge |
3.3 |
3.5 |
|
VI. Advancement of Knowledge |
3.2 |
3.4 |
|
|
|
|