The mission of
the Department of Geology is three fold: 1) we generate
and preserve knowledge about earth systems, the processes
that act upon them, and the history of life; 2) we provide
excellent general education courses in the earth sciences
that are central to a comprehensive liberal arts education;
3) we provide quality education in the geological sciences
at both the undergraduate and graduate levels.
The faculty of
the Department of Geology generate knowledge by investigating
challenging problems that have important implications for
understanding local, regional and global processes.
Scholarly research, grants from federal sources such as NSF,
and publications have increased significantly in the last
five years, in great part due to the emphasis on collaborative
multidisciplinary research. The Department's contribution
to preservation of knowledge is exemplified by its highly-ranked
paleontological repository, which is used by numerous national
and international scholars, and its work in helping to compile
computerized data archives, such as the North American Pollen
Database and the North American Plant Macrofossil Database,
that provide the framework needed to investigate and solve
global problems in the earth sciences. The generation
and preservation of knowledge has always been interdependent
with our graduate mission, and our students actively contribute
to our research mission.
Geology is a cornerstone
of a good liberal arts education because it is the science
that examines many issues critical to the scientific needs
of the nation and society. Examples include the evolution
of life, environmental topics (e.g. ground water, landfills,
nuclear waste repositories), geologic hazards that a can affect
society (e.g. volcanoes, earthquakes, floods, landslides)
and exploration/management of natural resources. In
addition, geologists interact with many other sciences by
applying state-of-the-art techniques from chemistry, physics,
biology and mathematics to problems in the earth sciences.
These concepts are taught by tenured or tenure-track faculty
in our GER courses. Basic geologic concepts, environmental
concerns, and critical and controversial areas in paleontology
and evolution are taught in separate courses that are open
to students from any discipline.
Advanced undergraduate
education is fulfilled by a diversified geology curriculum
which emphasizes sound geological observations, formation
and testing of hypotheses, and the application of modern quantitative
techniques and analytical methods not only from geology, but
also from chemistry, physics, biology and mathematics.
Emerging needs in the fields of environmental studies and
global change are being addressed by new courses and by changes
in traditional courses. Graduates from our bachelor's
programs are placed in the best graduate schools in the country,
in government service, and in industry.
Our mission in
graduate education is to produce well-trained, versatile scientists
who will contribute significantly to the needs of the state,
the nation, and the world. Our students can interact
with lay-people as well as professional colleagues in solving
a wide range of geological and environmental problems.
We are constantly introducing more rigorous analytical and
quantitative techniques to study processes that affect the
earth and its inhabitants.
| GOAL 1: |
Appoint, support and retain tenure-track
and tenured faculty of outstanding quality, diverse in
gender and ethnic background, and sufficient in size to
fulfill the department's missions. |
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| Objective 1: |
Improve the national and international prominence of
the department by increasing the amount of research in
emerging or revitalized areas of the department, while
retaining quality in areas that have been traditionally
strong. |
| Strategy 1: |
Gain national and international recognition in global
change and paleoclimatology by building on current strength
in Quaternary geology. Researchers from the Quaternary
group in the department, currently recognized as leaders
in the field, have developed innovative methodology for
solving critical issues in the fields of global change
and paleoclimatology. They have been extremely successful
in securing external funding from diverse sources to support
their research. Presently, grants to this group
(3 active grants = $469,000) account for 38 % of current
external research funding in the department. This
field is expected to remain as one of the prominent programs
in the department. |
| Strategy 2: |
Gain national and international recognition in environmental
geology. This group is addressing problems of geological,
physical, chemical and biological aspects of groundwater,
surface water, natural hazards and ecosystems using theoretical
and applied approaches. The addition of a hydrogeologist
in 1993 has provided a critical component essential to
the development of a strong environmental geology program.
Collaboration with faculty in other departments provides
additional expertise. Since this is a relatively
new program, external funding for this group is presently
low ($100, 289) but there is good potential for improvement.
Environmental geology should continue to emerge as an
important focus for the department. |
| Strategy 3: |
Gain national and international recognition in petrology/tectonics.
This group teaches the majority of courses required for
undergraduate majors, but has not historically been strong
in research. It has been focused and revitalized
by recent appointments to form an active group that uses
structural geology, metamorphic petrology, and igneous
petrology to investigate processes that occur in mountain
belts. Presently, this area is the most successful
in the department in securing funding from the National
Science Foundation (5 active grants = $342,155) and it
is rapidly attaining national recognition. This
group is expected to carry on strong research programs
that will acquire solid reputations during the next five
years. |
| Strategy 4: |
Maintain national and international recognition in paleontology/
sedimentary geology. This group forms the traditional
core of the department and it is changing to respond to
new trends in the discipline. In paleontology, emphasis
is being placed on the study of extinctions and biodiversity
through geologic time and their relationship to ongoing
problems in biological conservation. Sedimentary
geology is focusing on the use of depositional models
to detect and interpret patterns of global change in the
past. Current external funding is strong in this
group ($320, 561) and we expect that our internationally
recognized faculty will sustain the department's excellent
reputation in these areas. |
| Objective 2: |
Appoint and retain new faculty who will complement the
existing faculty, and who will provide critical mass to
gain external support for state-of-the-art lab facilities.
The department needs two additional faculty, one in surficial
geology and the other in radiogenic isotopes; these additions
will allow environmental geology and paleoclimatology/global-change
to acquire national prominence. One of these positions
will replace Professor Swett when he fully retires in
1996 and the other is a new position. |
| Strategy 1: |
New appointment in surficial geology-paleopedology.
The areas of environmental geology, paleoclimatology,
global change, and the Quaternary geology programs will
benefit by the addition of broad based geologist specializing
in the study of soils, landscape change, and surficial
processes. This person will utilize an array of
modern analytical and quantitative methods and will collaborate
with a number of faculty. |
| Strategy 2: |
New appointment in radiogenic isotope geochemistry.
All areas of the department will significantly benefit
by the addition of an outstanding analytically and quantitatively
oriented broad-based geologist with expertise in radiogenic
isotope geochemistry. This researcher must be capable
of establishing, operating, and funding a thermal ionization
mass spectrometry laboratory and be willing to collaborate
with other disciplines in the department. A dynamic
scientist in this broadly defined field is crucial to
maintaining current areas of strength and for the long
term success of emerging areas of strength. |
| Strategy 3: |
Other appointments. In addition to the two areas
described above, there is need in the department for more
expertise in areas such as geochemistry, ecology, Cenozoic
studies, and geophysics. If funding for positions
in these areas appears feasible, the department will identify
the areas of specialization most needed and proceed with
a proposal to the Dean. |
| Strategy 4: |
If unexpected faculty vacancies (retirements etc.) occur
in the next 5 years, the Department's needs will be evaluated
carefully to ensure that proposed replacements have skills
in areas that best complement existing faculty in the
department as a whole, but do not deplete an active group
of the critical mass it needs to retain national recognition. |
| Strategy 5: |
If the department of Biological Sciences does not hire
a community ecologist, the Department of Geology will
propose to the Dean that we be permitted to hire one to
provide expertise needed by the Quaternary geology and
paleontology groups. |
| Strategy 6: |
Provide effective mentoring for every faculty member
appointed as an assistant and associate professor, geared
to his or her own needs. |
| Objective 3: |
Increase the number of women and minority faculty recruited
and retained. |
| Strategy 1: |
Make certain that the proportion of minorities and women
in candidate pools for authorized searches is similar
to the percentage of qualified minorities and women in
the national pools. |
| Strategy 2: |
Ensure that effective mentoring is provided for every
woman and minority faculty member appointed as an assistant
and associate professor, geared to his or her own needs. |
| Strategy 3: |
Identify qualified minorities and women with skills
in areas in which the department needs additional expertise
and propose that the college hire them under its special
recruitment program. |
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| GOAL 2: |
Maintain high quality undergraduate
instruction. |
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| Objective 1: |
Improve the course offerings for undergraduates. |
| Strategy 1: |
Introduce a course in Geologic Hazards.
A new GER course will be added in the fall of 1995.
This course will address the major geologic hazards that
affect our nation, emphasizing geologic processes
that can result in catastrophic events. It will
provide essential education so that students can
make sound decisions in their daily living (e.g., selection
of housing that avoids areas prone to catastrophic geologic
events such as in flooding, volcanic eruptions, or earthquakes). |
| Strategy 2: |
Offer honors or majors sections in large core courses. |
| Strategy 3: |
Offer a required undergraduate seminar. |
| Strategy 4: |
Develop courses that emphasize quantitative laboratory
skills. |
| Objective 2: |
Strengthen education in the Environmental Geosciences. |
| Strategy 1: |
Introduction of a Bachelor of Science degree in Environmental
Geology. This new program will modify the traditional
Geology curriculum to provide environmental training.
The new program will build on expertise brought in by
faculty hired in the last five years, and draw from existing
courses on campus to produce a balanced instruction in
the various disciplines essential to an environment geoscientist. |
| Strategy 2: |
Add a course in geologic hazards (see above). |
| Objective 3: |
Continue to provide quality education in basic geology,
and make improvements where necessary. |
| Strategy 1: |
Revise the traditional offerings and modernize laboratory
facilities. |
| Strategy 2: |
Secure additional TA support for laboratory sections
in courses required for the undergraduate major and those
with large enrollments. |
| Strategy 3: |
Maintain 100 percent faculty-taught courses at all levels
in the department during the Fall and Spring semesters
of the regular academic year. |
| Strategy 4: |
Improve outcome assessment by adding a questionnaire
to be completed by graduating seniors. |
| Strategy 5: |
Develop a standardized evaluation form for all geology
courses, to permit uniform evaluation of faculty and identification
of problems. |
| Objective 4: |
Involve more undergraduates in research projects. |
| Strategy 1: |
Apply for Research Experience for Undergraduates money
through NSF to hire undergraduate assistants for faculty
research projects supported by NSF. |
| Strategy 2: |
Encourage more undergraduates to do senior thesis research
projects. |
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| GOAL 3: |
Provide the strongest possible graduate
training. |
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| Objective 1: |
Attract graduate students with better math and science
backgrounds into Geology. |
| Strategy 1: |
Develop a departmental brochure that emphasizes our
strengths and the importance of math and collateral sciences. |
| Strategy 2: |
Identify a permanent source of funding to bring outstanding
graduate applicants to visit the department. |
| Strategy 3: |
Identify a permanent source of funding to increase graduate
student salaries. |
| Objective 2: |
Provide more formal apprenticeship relationships of
doctoral students with faculty. |
| Strategy 1: |
Ensure that advanced undergraduate courses have Teaching
Assistants to provide this relationship. Academic
and many industry jobs require that applicants have teaching
experience in their sub-discipline. |
| Strategy 2: |
Increase collaborative research with graduate students
which will lead to publications, and continue to encourage
graduate students to seek external grants to support their
research. |
| Strategy 3: |
Offer the best Ph.D. candidate each year an appointment
as an Instructor to teach the Introductory Geology course
during the summer session. |
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| GOAL 4: |
Improve infrastructure to support teaching
and research missions. |
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| Objective 1: |
Increase funding for research in all areas of the department. |
| Strategy 1: |
Expand external funding for research in the department
by encouraging faculty to increase submission of proposals
to government agencies and foundations, such as NSF. |
| Strategy 2: |
Encourage faculty to increase the number of seed grant
proposals (e.g. Carver and CGRER). |
| Strategy 3: |
Encourage faculty to include more funding in proposals
to support additional undergraduate and graduate research
assistants. |
| Strategy 4: |
Encourage faculty to do collaborative multidisciplinary
research and to increase the number of multidisciplinary
research proposals. |
| Objective 2: |
Modernize and improve the research facilities in the
department. |
| Strategy 1: |
Secure funding for the modernization of geochemistry
facilities and instrumentation by generating proposals
to appropriate funding agencies. |
| Strategy 2: |
Secure funding for the development of a Stable Isotope
Facility. The development of this facility will
benefit several disciplines in the department and foster
collaboration with environmental researchers in Iowa.
It is critical to research in Global Change and Paleoclimatology,
and to maintaining strength in traditional areas. |
| Strategy 3: |
Acquire funding for a Thermal Ionization Mass Spectrometry
Laboratory (TIMS). Researchers providing over 80
% of the Department's external funding use data from TIMS
laboratories. The facility is vital to the long-term
success of the emerging areas of strength in the department
(environmental geology and geochemistry). It will
also provide benefits to virtually all disciplines in
the department and foster collaboration with researchers
in other departments, colleges and institutions. |
| Strategy 4: |
Acquire support for an electronics/geochemistry technician
to replace the position lost in late 1980's. |
| Strategy 5: |
Acquire funds to maintain and improve equipment for
capturing and analyzing morphometric data. |
| Strategy 6: |
Enhance computer capabilities for developing large taxonomic
and specimen data bases. |
| Strategy 7: |
Continue to support and upgrade the rock preparation
and thin section laboratory, and maintain support for
a full time technician. |
| Strategy 8: |
Acquire funds to establish a curatorial assistant position
for the Paleontological Repository. This position
is required in order to obtain future collections improvement
grants from NSF. |
| Strategy 9: |
Acquire funds and technical support for expansion and
enhancement of the research computer network in the department. |
| Objective 3: |
Improve instructional facilities to foster excellence
in teaching and learning. |
| Strategy 1: |
Introduce computerized instructional aids. Acquire
facilities necessary to provide computerized instructional
aids in the three large general instruction laboratory
classrooms in Trowbridge Hall. |
| Strategy 2: |
Upgrade teaching lab facilities/equipment through money
from the college and through proposals to NSF for this
purpose. |
| Strategy 3: |
Modernize lecture capabilities in the Geology Department.
Acquire a computer with a CD ROM player, a videodisk player,
and appropriate projecting equipment for lectures in undergraduate
GER and majors courses. This technology will allow
us to use the rapidly expanding audio-video materials
now on the market that highlight recent advances in earth
sciences. |
| Strategy 4: |
Acquire funds to support a manager/technician for instructional
computer facilities in department. |
| Strategy 5: |
Acquire funds to re-establish the storekeeper position
for teaching collections/lab management to replace the
position lost in mid-1980's. |
| Strategy 6: |
Acquire funds and technical support for expansion and
enhancement of the teaching computer network in the department. |