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Principle Investigator
|
School
|
Project
Description
|
Type
|
Reports/Links
|
| Bennett,
A. |
Clemson
University |
Add sustainability
module to Honors College course |
C
|
Final
Report
|
Bethel,B
Natvig, D |
Lander
University |
Explore community
sustainability model; lay groundwork for courses and
programs |
V
|
Final
Report
|
| Cooper,
M |
Clemson
University |
Add experiental
modules to chemistry course for non-majors |
C
|
Final
Report
|
| Darnell,
S |
USC |
Add sustainability
module to Maymester course |
C
|
|
| Fredendall,
L |
Clemson
University |
Bring visiting
faculty to Clemson; supervise development of EMS |
Other
|
Final
Report
|
| Gribb,
M |
USC |
Expand Maymester
course to include consideration of environmental factors,
discussion of sustainability issues |
C
|
Final
Report
|
| Hammitt,
W. |
Clemson
University |
Place attachment
and influence on sustainable practices |
R
|
Final
Report
|
Haque,
M.
Tai,
L. |
Clemson
University & USC |
Development
of “Sustainable Tool Kit” for Habitat for
Humanity and National Wildlife Federation partnership |
R
|
Final
Report
|
Hawkins,
G
Adkins,
B
Blacklocke,
S |
Clemson
University & USC |
Research relating
to establishment of a multi-university Environmental
Conflict Management Center (including College of Charleston) |
R
|
Final
Report
Publication
|
Hogan,
R
Moore,
P |
USC & Florence-
Darlington Technical College |
Evaluate
efficacy of internet/distance ed courses (to be sure
encouragement in name of “sustainability” is
warranted) |
R
|
Final
Report
|
Jacques,
J
London,
J |
Clemson
University |
Sustainable
Development working group; student projects; campus building
projects |
R
|
Final Report
|
| Liken,
M |
USC |
Development
of environmental medicine component for graduate nursing
course |
C
|
Final
Report
|
| Mack,
P |
Clemson
University |
Add sustainability
module to Honors College course |
C
|
Final
Report
|
| Morse,
J |
Clemson University |
Inventory of
SC Botanical Garden, using students |
R
|
Final
Report
|
| Peters,
W |
USC |
Identifying
legal impediments to sustainable development |
R
|
Final
Report
|
| Pierce,
C. |
USC |
Identify possible
ways to recycle granular waste into geomaterials |
R
|
Final
Report
|
| Skewes,
P |
Clemson
University |
Development
of multi-media module on environmental aspects of animal
husbandry |
C
|
Final
Report
|
| Tinsley,
J |
Clemson
University |
Sustainability
module for earth sciences course for non-majors |
C
|
Final
Report
|
| Wagner,
J |
Clemson
University |
Sustainability
issues in sciences for education majors |
C
|
Final
Report
|
| Wallace,
S |
Clemson
University |
Interns at
Sustainable Agriculture facility (in cooperation with
Francis Marion U.) |
Other
|
Final
Report
|
Warner,
L
Brannan,
W |
USC
and MUSC |
Possible uses
of dense CO2 to replace hazardous cleaners in hospital
complexes |
R
|
Final
Report
|
| Wells,
G |
Clemson
University |
Development
of sustainability module for international economics
course for non economics majors |
C
|
Final
Report
|
| R= |
Sustainability
Research Mini-Grants |
C= |
New Course
Development/
Summer
Support |
V= |
Faculty/Student
Visiting Scholar Awards |
Other |
Reports
Calhoun Honors Seminar
H203:
The
Arts, Politics & Technologies of Food
Prepared by: Alma Bennett,
Professor
Department
of English
Clemson
University
The course, as its description
indicates, is a highly interdisciplinary study that
traces and integrates artisitic, technological, theological,
economic and political preoccupations with food- from
prehistory to the present.
Description of the Seminar's
Goals & Participants
An Associate
Professor of Humanities and English
who specializes in highly interdisciplinary
courses, I first proposed and began
to teach this Calhoun Honors Seminar
five years ago, after Dr. Steve Wainscott,
Director of the Calhoun Honors College,
asked me to design a course on any
subject which could serve as a nexus
for a number of disciplines. I
chose food since it is a natural
nexus that binds together disparate
components of life, death, society,
barter, labor, invention, diplomacy,
immigration, weather, natural resources,
religion, mystery, and creativity. As
the policy statement indicates, my
primary goals for the course are
for the students to explore the intricate
nature of those connections and to
appreciate food's central role in
human history, creativity, and inventiveness.
The twenty students in
the seminar represent a wide range of majors, backgrounds,
and interests. Their majors are as follow:
Animal Science 2
Biochemistry 1
Biological Sciences 2
Chemical Engineering 1
Civil Engineering 2
Computer Engineering 1
Construction Science & Management 1
English 1
Graphic Communications 1
Marketing 2
Pre-Rehabilitation 2
Psychology 2
Speech & Communications 2
Innovations Motivated
by the Mini-Grant
The
mini-grant has encouraged my expanding
and/or adding several components
to the seminar:
- The addition of a second
field trip, which was a resounding success, during
which we visited the Aquaculture Facilities, the
Starkey Swine Center, and the Simpson Beef Unit of
Clemson University. As a result of these learning
experiences and the students' responses, this will
be a permanent component of the seminar. To
demonstrate something of the students' appreciatiion
of this opportunity. I have enclosed two of
the student's responses to the field trip.
- An expanded study of
the sixteenth- and seventeenth-century exchanges
between the New World and Europe of seeds, plants,
agricultural innovations and traditions, and diseases. This
study in turn, encouraged me to begin preparation
of an expanded study unit on the Irish Potato Famine
and all the population, agricultural, political,
and immigration issues surrounding that calamity.
- A new course component,
using Coca-Cola as our model, in which we examined
current contemporary problems and law suits surrounding
major food-related corporations, problems that range
from charges of tainted bottlings in Europe to racial
discrimination. My preliminary research on
this was presented to and discussed by the seminar
prior to our six-hour visit to the international
headquarters of Coca-Cola in Atlanta.
In addition to these special
course components, the mini-grant has enabled me to purchase
(or to rent, in the case of one film unavailable for purchase)
copies of food-related films which will be a permanent
part of the seminar's Food in Films study unit.
Purchases:
- Babette's
Feast, based on the story by Isak Dinesen
- Big
Night
- How
Tasty My Little Frenchman
Rental:
- Like
Water for Chocolate, based on the novel by
Laura Esquivel.
An additional benefit of the
grant was the purchase of two books -- The Absolut Book and
the Cuisine of the Creative -- which will be used,
respectively, in a future study unit on food and advertising/the
alcohol wars and in a Food of the Artists series, including
food and agricultural traditions and aesthetics surrounding
such artists as Monet, Toulouse-Lautrec, Cezanne, and others.
Description of the Seminar
Assignments
The
enclosed policy statement, syllabi,
assignments, responses, and list
of solo presentations will indicate
something of the complexity of the
students' work this semester. Their
final solo presentations -- each
of which included Powerpoint slides
-- were excellent as were their final
research papers, which expanded their
presentation topics. I was
particularly impressed by their highly
professional portfolios which reflected
the scope of the their study and
all written (23 in all) assignments,
which I had edited and critiqued
prior to their inclusion in the portfolios.
|
|
A Sustainable
Development/Environment Module for
an International Economics Course for Non-Majors—Final
Report
Prepared by: Gary J.
Wells, Professor
Agricultural
and Applied Economics
Clemson
University
The Project
The basic objective was
to incorporate a module addressing trade, sustainable
development and environmental issues into Economics
310, International Economy. This course is designed
for non-economics majors interested in international
economics. Students come from a broad spectrum
of the University including management, languages,
and engineering. The course is offered each semester,
and this semester (Fall 2000) the enrollment is 80.
Specifically, sustainable
development/environment has been incorporated into
discussions of:
- The World Trade Organization
- The European Union
and
- The North American
Free Trade Agreement
Additionally, a section considering
the unique interactions of trade, sustainable development,
and the environment has been included. Issues addressed
include:
- Does trade encourage
or deter sustainable development?
- Should trade policy
concern itself with sustainable development and environmental
issues?
- Should there be differential
international trade rules for developing versus developed
countries?
- Is regulation the route
to go?
- Are environmentally
friendly countries put at a trade disadvantage?
To supplement the text selected
for ECON 310 a set of notes has been developed. To "bring
the material home" a mini-case study will be required.
To facilitate maximum use
of the material by the course's students as well as
by students at other universities revised notes and
case study have been placed on the course’s web
site. The course outline (including links to
the web material) have been submitted to the Starfish
program.
Project Material Includes:
- Power Point presentation
of Trade and the Environment
- Power Point presentation
of the European Union, Trade and the Environment
- Power Point presentation
of the World Trade Organization, Trade and the Environment
- Power Point presentation
of NAFTA, Trade and the Environment
- Case Study entitled "A
Towering Tangle of Tires or When the Rubber Leaves
the Road" (requires a Wall Street Journal Interactive
Edition subscription)
- An extensive general
listing of recent environmental issues in the news
(requires a Wall Street Journal Interactive Edition
subscription)
- A web site with the
above material
(http://hubcap.clemson.edu/~gjwells/Environment.html)
|
|
FINALREPORT
PROJECT TITLE: The Development
of a Comprehensive Research Plan to Evaluate the
Effectiveness of Distance Learning
Name: Dr. Robert
P. Hogan, Associate Vice President for Learning
Resources
College: Florence-Darlington
Technical College
Phone: (843)
661-8344 Fax:
(843) 661-8217 Email: hoganr@flo.tec.sc.us
Name: Dr. Philip
S. Moore, Director of Assessment
College:
University of South Carolina
Phone:
(803) 777-2814 Fax:
(803) 777-5415 Email: PhilMoore@sc.edu:
PROJECT SUMMARY
As colleges and universities
move to embrace distance learning, the need for students
to travel to college campuses will diminish. The
trend toward "paperless" courses and distance learning
will consequently reduce the need for new classroom
buildings and parking lots, and will result in less
demand for gasoline for student travel and electricity
for heating and lighting of classrooms. While
this trend to conserve natural resources and increase
accessibility to higher education is laudable, it is
essential to ensure that these savings are not realized
at the expense of student learning and success. Thus,
the purpose of this project was to develop a comprehensive
research plan to evaluate the effectiveness of distance
learning courses.
The project assembled a
comprehensive review of he literature that is available
for all South Carolina colleges, and it developed a
comprehensive research plan and method of analysis
to evaluate the effectiveness of Internet courses. Although
the research model is tailored to online delivery,
the model is applicable for interactive televised courses
(ITV), independent study, and satellite courses. The
research supported by this Initiative has assisted
the college in evaluating the effectiveness and sustainability
of online education.
On unique aspect of this
project has been the collaboration between the University
of South Carolina and Florence-Darlington Technical
College. Florence-Darlington Technical College
has expertise in online delivery of courses, offering
several associate degrees and more than 50 online courses. The
University of South Carolina provides research expertise
that is not available at the technical college level.
RESULTS
Literature Search
The project conducted an
extensive review of the research literature and assembled
the results on a CD. CD copies of the literature
search have been distributed to Clemson University,
the University of South Carolina, and the 16 technical
colleges. Dr, Moore will facilitate a breakfast session
on distance learning at the national AAHE Assessment
Conference
in June and will distribute our CD
to all participants.
Copies of the literature
search have been requested by researchers at the University
of Maryland’s Office of Institutional Research,
University of South Carolina researchers, and members
of the South Carolina Partnership for Distance Learning. The
University of Maryland researchers have agreed to send
the results of their follow-up literature search.
The literature search identified
several key variables. The following is a list of primary
independent and dependent variables in research dealing
with the effectiveness of distance education.
Independent Student
Variables
- Academic confidence
- Age
- Cognitive skills, study
habits
- Employment, PT/FT
- Familiarity with subject
taught
- Familiarity with technology
- Family, children
- Gender
- Hours enrolled, PT/FT
- Learning style
- Educational attainment
- Motivation, persistence
- Prior distance learning
experience
- Socio-economic background
Independent Instructional
Variables
- Advance organizers
- Class size
- Course age
- Course workload
- Feedback
- Individual/ group assignments
- Instructional material
quality
- Instructor availability
- Instructor DL training
- Instructor teaching
load
- Statement of course
goals,
- Variety of media
- Visual aids
Independent Program
Support
- Availability of course
materials
- Availability of library
services to off-site students
- Ease of communication,
i.e., toll free lines, fax, email
- Number of staff, facilitators
per course
- Number of students
enrolled
- Student advisement,
tutoring
- Key Dependent Variables
- Amount/Quality of interaction
- Attrition rate
- Course satisfaction
- Employer satisfaction
- Grades
- Number of program graduates
- Willingness to participate
in future DE courses/recommend to others
DATA ANALYSIS
The online program at Florence-Darlington
Technical College has increased dramatically during
the 1999-2000 academic year with nearly 1000 students
enrolling in Internet courses. A preliminary
review of the data has shown that the attrition rate
for online courses is significantly greater than for
traditional on-campus courses. For this reason,
the research effort has been shifted to focus on both
retention and course quality.
The researchers will complete
the data analysis in summer 2000 and based upon the
results of the analysis and the literature search,
changes will be made to the online programs to increase
student retention.
The researchers will present
their findings at to EdTEch 2000 (Sept 26-28, Charleston,
SC and The Southern Association of Colleges and
Schools 2000 Annual Meeting (December 5-8, Atlanta,
GA). Proposals have also been submitted)
and The Chair Academy 10th Annual International Conference, "New
Horizons: Leadership for the Future," (Feb. 14-17,
Tampa, FL). A proposal will also be submitted
to present research findings at the National Learning
Infrastructure Initiative (NLII) Annual Meeting (Jan
28-30, New Orleans.
|
|
FINALREPORT
PROJECT TITLE: The Development
of a Comprehensive Research Plan to Evaluate the
Effectiveness of Distance Learning
Name: Dr. Robert
P. Hogan, Associate Vice President for Learning
Resources
College: Florence-Darlington
Technical College
Phone: (843)
661-8344 Fax:
(843) 661-8217 Email: hoganr@flo.tec.sc.us
Name: Dr. Philip
S. Moore, Director of Assessment
College:
University of South Carolina
Phone:
(803) 777-2814 Fax:
(803) 777-5415 Email: PhilMoore@sc.edu:
PROJECT SUMMARY
As colleges and universities
move to embrace distance learning, the need for students
to travel to college campuses will diminish. The
trend toward "paperless" courses and distance learning
will consequently reduce the need for new classroom
buildings and parking lots, and will result in less
demand for gasoline for student travel and electricity
for heating and lighting of classrooms. While
this trend to conserve natural resources and increase
accessibility to higher education is laudable, it is
essential to ensure that these savings are not realized
at the expense of student learning and success. Thus,
the purpose of this project was to develop a comprehensive
research plan to evaluate the effectiveness of distance
learning courses.
The project assembled a
comprehensive review of he literature that is available
for all South Carolina colleges, and it developed a
comprehensive research plan and method of analysis
to evaluate the effectiveness of Internet courses. Although
the research model is tailored to online delivery,
the model is applicable for interactive televised courses
(ITV), independent study, and satellite courses. The
research supported by this Initiative has assisted
the college in evaluating the effectiveness and sustainability
of online education.
On unique aspect of this
project has been the collaboration between the University
of South Carolina and Florence-Darlington Technical
College. Florence-Darlington Technical College
has expertise in online delivery of courses, offering
several associate degrees and more than 50 online courses. The
University of South Carolina provides research expertise
that is not available at the technical college level.
RESULTS
Literature Search
The project conducted an
extensive review of the research literature and assembled
the results on a CD. CD copies of the literature
search have been distributed to Clemson University,
the University of South Carolina, and the 16 technical
colleges. Dr, Moore will facilitate a breakfast session
on distance learning at the national AAHE Assessment
Conference
in June and will distribute our CD
to all participants.
Copies of the literature
search have been requested by researchers at the University
of Maryland’s Office of Institutional Research,
University of South Carolina researchers, and members
of the South Carolina Partnership for Distance Learning. The
University of Maryland researchers have agreed to send
the results of their follow-up literature search.
The literature search identified
several key variables. The following is a list of primary
independent and dependent variables in research dealing
with the effectiveness of distance education.
Independent Student
Variables
- Academic confidence
- Age
- Cognitive skills, study
habits
- Employment, PT/FT
- Familiarity with subject
taught
- Familiarity with technology
- Family, children
- Gender
- Hours enrolled, PT/FT
- Learning style
- Educational attainment
- Motivation, persistence
- Prior distance learning
experience
- Socio-economic background
Independent Instructional
Variables
- Advance organizers
- Class size
- Course age
- Course workload
- Feedback
- Individual/ group assignments
- Instructional material
quality
- Instructor availability
- Instructor DL training
- Instructor teaching
load
- Statement of course
goals,
- Variety of media
- Visual aids
Independent Program
Support
- Availability of course
materials
- Availability of library
services to off-site students
- Ease of communication,
i.e., toll free lines, fax, email
- Number of staff, facilitators
per course
- Number of students
enrolled
- Student advisement,
tutoring
- Key Dependent Variables
- Amount/Quality of interaction
- Attrition rate
- Course satisfaction
- Employer satisfaction
- Grades
- Number of program graduates
- Willingness to participate
in future DE courses/recommend to others
DATA ANALYSIS
The online program at Florence-Darlington
Technical College has increased dramatically during
the 1999-2000 academic year with nearly 1000 students
enrolling in Internet courses. A preliminary
review of the data has shown that the attrition rate
for online courses is significantly greater than for
traditional on-campus courses. For this reason,
the research effort has been shifted to focus on both
retention and course quality.
The researchers will complete
the data analysis in summer 2000 and based upon the
results of the analysis and the literature search,
changes will be made to the online programs to increase
student retention.
The researchers will present
their findings at to EdTEch 2000 (Sept 26-28, Charleston,
SC and The Southern Association of Colleges and
Schools 2000 Annual Meeting (December 5-8, Atlanta,
GA). Proposals have also been submitted)
and The Chair Academy 10th Annual International Conference, "New
Horizons: Leadership for the Future," (Feb. 14-17,
Tampa, FL). A proposal will also be submitted
to present research findings at the National Learning
Infrastructure Initiative (NLII) Annual Meeting (Jan
28-30, New Orleans.
|
|
Final
Report
PLACE ATTACHMENT
AND ITS INFLUENCE
ON
SUSTAINABILITY OF CAMPUS RESOURCES
William E. Hammitt,
Professor
Department
of Forest Resources
Clemson
University
Clemson,
SC
The study was part of the
Clemson University “Sustainable Universities
Initiative Mini-Grant Project,” conducted 30
June 1999 through 30 June 2000. The purpose of the
research was to inventory places on campus (buildings
and open spaces) for student and faculty “sense
of attachment”, to be used as an indicator for
sustainable planning and management on campus. The
premise underlying the study was that Clemson University’s “places” within
the campus are special places that many South Carolinians
have experienced and are strongly bonded/attached.
Current students are developing emotional bonds and
attachments to campus places and attributes that will
be sustained over a lifetime. It is essential that
Clemson University personnel understand the major components
of campus place bonding/attachment, and to work toward
the sustainability of these valued resources.
There were two phases to
the study. Phase I involved passing out instamatic
cameras to 15 freshmen and 15 seniors to photograph
12 places/spaces on campus, that students felt a sense
of attachment toward. Classrooms were visited on two
geographical areas of campus (agricultural and central)
to ask for volunteers to take photos. The photos served
as an inventory of campus resources and were analyzed
for universal and thematic content. The 300+ student
generated photographs, after reduction by a panel of
four researchers to 24 universal and/or thematic themes,
were re-photographed with a digital camera and used
as stimuli (place photos) in Phase II of the project.
Phase II consisted of a
photo-questionnaire consisting of 24 prototype photos
from the student (plus researcher) generated photo
inventory, a place attachment scale, and some background
characteristics of respondents. The photo-questionnaire
was used to sample 58 freshmen, 116 seniors (n = 174),
10 new (1st year) faculty, and 11 senior (15+ years
at Clemson University) faculty (n = 21) for sense of
place bonding/attachment toward campus environments.
Different disciplines and areas of campus were purposefully
sampled (classrooms) to approximate a representative
sample of students.
Results indicate that students
have a fairly strong to strong attachment with the
overall campus, while faculty have significantly less
(p 0.001). Students were most bonded/attached with
the football stadium, followed by Tillman Hall, the
amphitheater, the amphitheater-pond-library corridor,
and the reflecting pond. Bowman Field, along with Tillman
Hall and Death Valley, symbolize the place theme most
bonded with by students. In general, students are most
bonded/attached to the central area of campus, its
buildings, and connecting pathways.
They have a very weak to
only a little attachment for the landscaped and natural
areas of campus. Although students were significantly
more bonded/attached to campus than faculty, they both
agreed that the campus is “quite familiar and
recognizable” to them, that “the campus
is easy to bond with”, that “it is a part
of them”, that “five years after graduation
(retirement or transfer) campus places will still be
an important part of them”, and that “the
campus places having the strongest ratings of bonding/attachment
should be sustained.” The latter two statements
are quite relevant to the purpose of this project,
being the sustainability of universities and their
resources. Freshmen, though new to campus, did
not differ significantly (statistically) from seniors
in degree of bonding/attachment with campus places.
In the few instances where differences were found,
freshmen were more bonded/attached. When females
and males were compared, males were significantly more
attached to outdoor, landscaped, and natural places-areas
of campus. There were no differences between females
and males for developed-constructed places and areas.
There are many aspects
or dimensions of place bonding and attachment, ranging
from being only familiar with a place, to belonging
to it, to self-identity, to dependence on it, and to
even developing a sense of rootedness. Students revealed
the following order (most to least) of bonding for
the dimensions: place belongingness, place familiarity,
place rootedness, place identity, and place dependence.
Students were neutral as to whether they depend on
campus places a lot.
Although faculty rated
all but two of the 24 photographed places lower (18
of them
significantly,
p <=0.05) than students, the pattern
of places most to least bonded with
was quite similar (correlation = 0.83).
The exception was with the football
stadium and playfields, which students
ranked considerably higher than faculty.
In general, faculty ratings simply
seem to be more reserved than student
ratings. (Other explanations are offered
in the Summary, Implications, and Conclusions
section of the report).
The study results generate
several questions and concerns about student/faculty
sense of place bonding/attachment on campus. The findings
also have various implications for how to best plan
and manage place bonding/attachment on campus, and
sustain the places of campus attachment. For example,
(1) why have students not developed or acquired a greater
bonding for the natural and landscaped dimensions of
campus, (2) why are faculty ratings of bonding/attachment
consistently lower than students’ ratings, (3)
why does length of time on campus (i.e., freshmen versus
seniors) not influence sense of campus bonding, and
(4) what is and can be done to improve an already established
sense of bonding/attachment with campus
places?
Finally, there were limitations
to the study. It was a pilot study funded by seed-money
for a
period of only one-year. The sampling
and data analysis were not extensive.
In particular, a larger sample of faculty
is needed for a valid interpretation
of results. A second generation, more
extensive study, is recommended as
a sequence to this pilot study.
|
|
Final Report
Michelle
A. Liken PhD, RN, CS
Department
of Family and Community Health
Nursing
The
University of South
Carolina
Incorporating
Principles and Practice of Environmental Justice
in a Core Health Major Course for Advanced Practice
Nursing Students & Development of Case Studies
of Communities at High Risk for Environmental Health
Hazards in South Carolina
The impetus for submission
of the Sustainable Universities grant proposals was
The University of South Carolina, College of Nursing’s
(CON) commitment to environmental sustainability. Faculty
and students of CON are cognizant of the direct impact
of the environment on the health and well-being of
our clients, families, and communities. Teaching
families mechanisms for maintaining a balance of resources
may pale in comparison to providing care for clients
experiencing crises related to acute and chronic illnesses. Attention
to environmental factors contributing to onset and
exacerbation of illnesses, however, must be a priority
for Nursing and other health care disciplines.
Two key areas of significance
to environmental sustainability and health care were
identified, including environmental justice, and environmental
health case management. Two grant proposals were
submitted to address these issues
Incorporating Principles
and Practice of Environmental Justice in a Core
Health Major Course for Advanced Practice Nursing
Students
Proponents of environmental
justice posit that vulnerable populations, such as
minority ethnic groups, and low-income communities
are disproportionately exposed to pollution and environmentally
induced related health risks. Those concerned
about issues of environmental justice seek to promote
appropriate actions to eliminate these risks. Advanced
Practice Nursing students (Nurse Practitioners, Clinical
Nurse Specialists, Post-Master’s, and Nursing
Doctorate) will repetitively encounter individuals
and families from disadvantaged groups in their health
care practices. Introducing principles of environmental
justice to students early in the educational process
allows them to integrate key principles across theoretical
courses and clinical practicum. The purpose of
this project was to facilitate examination of health
risks and outcomes resulting from a disproportionate
exposure to toxins and pollution among advanced practice
nursing students. Toward meeting this objective,
an environmental justice module was designed and implemented.
The specific target population
for this project was students enrolled in Conceptual
Basis for Family and Community Health Nursing (NURS
708). This course is required for all graduate
Nursing students in the Health Major. The key
objective of NURS 708 is to introduce students to basic
concepts, theories, and issues relevant to practice
as a specialist in Public Health/Community Health Nursing. Students
obtaining their degree in the Health Major function
as advanced practice nurses. As such, these nurses
assume leadership positions in the primary health care
of families and selected community populations. This
core course is opportune for introducing students to
the principles of environmental justice.
The environmental justice
module took shape in two forms:
(1) Dr. Adrienne Cooper,
Assistant Professor in the Department of Civil and
Environmental Engineering served as a consultant for
developing this module. Dr. Cooper presented
a class lecture and provided students with a packet
of materials to enhance understanding of principles
and practice of environmental justice. Dr. Cooper
guest lectured for Nursing 708 on the topic of Principles
of Environmental Justice in Spring of 2000 and Fall
of 2000. Her lecture has been recorded via Distance
Education and the tape will be shown to students in
the Spring of 2000 and Fall of 2001. It is anticipated
that this interdisciplinary teaching collaboration
will continue in the future. One plan is to invite
a panel of experts including, but not limited to an
environmental ethicist, an environmental justice activist,
and community citizens and corporations who have been
involved with issues of environmental justice. A manuscript,
authored by the study’s principal investigator
and Dr. Cooper, which will be submitted to a Nursing
or health care journal, is in progress.
(2) The change for adding
an objective to explore political and ethical dimensions
of environmental health issues environmental health
to NURS 708 was approved in the College of Nursing
and at the University level. (Click here to
view syllabus.) The traditional Family Assessment
and Care Plan assignment, required for Nursing 708
was expanded to include a second written paper. This
follow-up paper built on initial work with a selected
family and included a comprehensive assessment of family’s
immediate and broader environment. Students developed
a plan of care to address actual and potential environmentally
induced health hazards. As part of this written
paper, students were required to consider the family’s
values, concerns, motivation, and potential roles in
solving local and global environmental problems. Students
were also asked to consider principles of environmental
justice to their assessment and plan . Finally,
students were asked to address various roles of the
advanced practice nurse, such as advocate, educator,
and case manager in working families and communities
concerning environmental health issues. (Click here to
view a sample Environmenatl Assessment and Plan paper)
A survey to assess knowledge
level of environmental justice issues indicated that
less than 25% of students knew what environmental justice
was, but that over 85% felt assessment of environmental
risks was an important part of planning and care provided
by advanced practice nurses. Over 75% of the
students felt the current curriculum was lacking in
terms of teaching them to assess and plan care related
to environmental health issues.
Developing Case Studies
and Planning Interventions to Reduce Environmental
Health Hazards among High Risk Communities and
Vulnerable Populations in South Carolina
The purpose of this project
was to identify communities at high risk for environmental
health hazards in South Carolina, and to develop environmental
health learning modules based on selected cases. This
project was a collaborative effort between University
of South Carolina’s (USC) Department of Family
and Community Health Nursing, and the Medical University
of South Carolina’s Area Health Education Council.
The project’s principle
investigator and a graduate assistant from USC and
MUSC to identify critical health problems across the
state, which were potentially environmentally induced. To
fully assess these problems, the project team traveled
too numerous sites throughout the state and interviewed
to the individuals in the community including government
officials and lay citizens. The team then worked
to identify possible factors for untoward health outcomes. Finally,
numerous resources were identified to aid in planning
care to addresses environmentally induced health hazards. These
case study modules are linked to USC College of Nursing’s
home web page:
http://www.sc.edu/nursing/likeshell/index.htm
Developed case study modules
have been distributed to 60 faculty on the MUSC’s
campus to be used by students in the College of Health
Professions and the College of Nursing. In addition,
25 students in the parallel curriculum in the College
of Medicine at MUSC will utilize problem-based exercises
centering on case study modules. Faculty in the College
of Pharmacy and Dental Medicine at MUSC are considering
incorporation of these modules into their existing
curriculum. The modules have also been sent to
Clemson University and will be featured in an upcoming
public health meeting.
It is anticipated that
these case study modules will be incorporated in USC’s
graduate and undergraduate Community Health Nursing
courses in the near future. Likewise, plans for
having Community Health students, as part of their
course activities, update and add to components “under
construction” on USC’s CON Environmental
Health website, are underway.
The second component of
this project was to develop an intervention designed
to assess for and reduce specific environmentally induced
health hazard among high-risk communities and vulnerable
populations. The graduate student from USC and
the project’s principal investigator worked together
to investigate mechanisms to design an intervention
to assess lead poisoning among children in a selected
community. The community selected was Olympia
Mills (OM), a small, older neighborhood in Columbia,
South Carolina. This community was of particular
concern due to a number of risk factors including the
houses, the population, and the surrounding environment.
To date, this project remains
ongoing. This small community has become engaged
in a dispute with local industries and city officials
regarding the redirecting of quarry trucks through
a residential community. This major environmental
health risk to safety and quality of life of community
residents has consumed time and resources of this community
and the plan to address lead poisoning was put on hold
until the traffic redirecting issue is resolved. This
community remains highly at risk and will be a target
community for ongoing USC CON/community partnering
projects to reduce environmental health risks.
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Final Report
Interns at
Sustainable Agriculture facility
(in
cooperation with Francis Marion U.)
Susan Wallace
Clemson University
With the SUI funds and
other funds, we supported 6 interns working with the
Agroecology program at Pee Dee REC. One was from
Clemson, two from SC State, two from Francis Marion,
and one from Ga Tech. From all reports, the experience
was good for the students and faculty.
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|
Final Report
New Focus
on Sustainability in the Earth Resources Course
Jody
Tinsley
Department
of Geological Sciences
Introduction:
This grant supported two
major goals. The first goal was to develop and
implement a pilot project for the Fall 1999 semester
in Geology 112 (Earth Resources) as a trial for the
complete module to be used later. The second
goal was to develop a three-week module on sustainability
that would be implemented during the Spring 2000 semester
in Geology 112.
The Pilot Project:
The pilot project was developed
and implemented in one section of Geology 112 in the
fall of 1999. This course, called Earth Resources,
is the second in a two-semester sequence of geology
classes taken mostly by freshmen to satisfy their general
education requirements in science. The student
population in these courses is entirely non-geology
majors and nearly completely non-science majors, and
this course is designed to meet the needs of this population
as well as possible by focusing on relationships between
earth resources and societies, rather than simply focusing
on the resources themselves. Studying sustainability
provides a way to link many of these connections into
an overall pattern. The pilot projct, where students
in one seciton could participate for extra credit in
their Earth Resources class, gave us a chance to try
out many of the ideas concerning group work, topic
selection, and presentation format which we later used
in the Spring 2000 semester. We judged the results
successful, and we continued with our plan to use this
project as a larger part of Geology 112 in Spring 2000.
Three-Week Module
The three-week module that
we developed for the Spring 2000 classes, which includes
a couple of class days early in the semester and about
two weeks near the end, contains the workings of a
sustainability curriculum. The goal of the curriculum
is to have the students tie the factual information
from the course and outside research into answering
this general question: What connection is there
between earth resources, sustainability, and my own
life? The basis of the curriculum is student-researched
and presented projects, focusing on particular aspects
of sustainability, with the projects fitting into a
loose structure that attempts to answer the above question
for the class as a whole. In addition to the
projects, one or more speakers address the class, discussing
sustainability in a specific context.
The outline of the curriculum
follows:
1. Four or five weeks
into the semester the idea of sustainability is introduced
to the class; a list of proposed projects is handed
out.
2. The class following
this introduction, 15-20 minutes are set aside for
the assignment of projects, the organization of groups
and the selection of group liaisons.
3. Two weeks after
the groups and projects have been assigned, the group
liaisons meet with the instructor to discuss their
group's specific topic.
4. Four weeks after
the intitial meeting with the instructor, the liaison
meets again with the instructor to show a summary of
research and a presentation outline. Direction
is given to the students for areas to alter or improve.
5. One to two weeks
later a final meeting occurs between the liaison and
the instructor to review visual aids and last-minute
preparations. The liaison must be prepared to
request special needs items, i.e. overhead projector,
computer projector, etc. Also, assignments are
made of day and time for the reports at this time.
6. During the class
period before the reports begin, if possible, a speaker
comes in to talk about sustainability issues in a specific
industry or other specific context.
7. Approximately
a week and a half of class time near the end of the
semester is given over to the groups' oral presentations,
which run 10 to 15 minutes per project.
8. During the following
class period, an overview and summation is held.
Projects are graded based
on 3 main criteria:
1. quality, quantity,
and appropriateness of research
2. presentation
quality, including the use of visual
aids
3. group
participation (This grade
is assigned by the group
members themselves in a
private fashion.)
Conclusion:
This project was enjoyed
by the majority of the students, based on their comments
on the course evalutions, and they also felt that they
learned from it, both about the issues of resources
and sustainability and about the skills demanded by
group work and oral presentations. As their instructor,
I share their impressions of the experience. I
saw them engaged by the material and developing good
work skills, which they can apply elsewhere. They
came away from the exercise with a strong understanding
of sustainability and a clear view of some of the ways
our society does and, as is more generally true, does
not operate in a sustainable fashion. The curriculum
may certainly be modified as time passes, but it provides
a working framework for future semesters.
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Final Report
Course
Development
Calhoun
Honors Seminar--The Millenium: Technology
and Its Critics
Fall
1999
Pamela
E. Mack
The course, an interdisciplinary
seminar for honors students, was successfully taught
in the fall of 1999. I used the funds from the
Sustainable Universities Project to buy three videos
and to subscribe to a teleconference. I showed
the videos during class (in some cases only in part)
and the class met in the evening once a month to watch
the teleconference live. The video and teleconference
material made a real difference to the richness of
the course—I was able to give students a variety
of experiences and formats to think about the issues
raised by the course.
The syllabus of the course
is available on line at: http://people.clemson.edu/~pammack/chs-mil.htm . The
course centered on studying impacts of and critiques
of technology. I was very pleased with how the
students tackled challenging material. I didn’t
want to turn the students into Luddites (a movement
we studied), but to tell them that if we are to use
our technology well we must think about the problems
pointed out by its critics. However, I
think I expected too much of them in the argument around
which I organized the course. I found that students
had some trouble comparing critiques of technology
because they weren’t used to looking from the
outside at the impact of technology on society. They
also expected a course more about the future and less
about the past. Some students commented at the
end of that course that they enjoyed the course because
it made them think for the first time about the impact
of technology—what I had thought of as the starting
point was for them the most important thing they got
out of the course.
My experience with the
Millenium course has led me to develop a related course
for spring 2001, called: 2001: A History of the Future
(see http://people.clemson.edu/~pammack/syl2001.htm ). On
the basis of what I learned in the first course I am
going to ground the course somewhat differently, in
hopes of doing a better job of starting where the students
are. I will be using a lot that I learned from
teaching the first course and probably one of the films. Another
film I bought with grant money, Charlie Chaplin’s “Modern
Times”, I now show every year in my big course
for freshman engineers, History 122. I find that
gets students into seeing things from the point of
view of the workers more effectively than anything
else I have tried.
I feel that my project
helped the students in the course understand the issues
we must consider to use technology in a sustainable
way in the future. It has also helped me to teach
more effectively about those issues in other courses.
Final Report
Peter Skewes
Animal
and Veterinary Science
A course module on
Animal Agriculture and the Environment was developed
for use in AGRIC 103 Introduction to Animal Industries.
This course is taught each fall and has an enrollment
of 60-90 students. The multimedia module was developed
in Toolbook II and includes an interactive exit quiz.
The broiler industry was used as a model to cover current
information related to manure management including
size of the animal industries, production of manure,
handling of manure, utilization of manure, economic
value of manure, legislation related to animal agriculture,
quality of life, and public perception issues. This
module provides an introduction into the environmental
issues related to manure handling in animal facilities.
This module will be incorporated
into AGRIC 103 this fall.
Final Report
Small Mammal
/Amphibian Survey of the SC Botanical Gardens
John C.
Morse, PhD
Professor
of Entomology and Director,
Department
of Entomology
Clemson
University
(864)656-5049
email: jmorse@clemson.edu
Three sites were
set up at the Botanical Gardens in order to proceed
with the survey. Each site contained six 300 foot transects
(A-E) with a space of 30 between each trap. Five pitfalls
were placed at each corner and in the center of the
site. Site One, a riparian woodland area located at
the south end of the gardens, contains an access road
and a trail system running through. Site 2 located
in the Shoenike Aboretum is a dry, open grassland with
trees planted sparsely. Site 3, referred to as
the Redwood Area, is a lush grassland often wet due
to drainage from the greenhouse.
From March through
June 2000 pitfalls at all three sites were opened several
times and checked for small mammals and amphibians.
Results can be seen by following the designated links. During
the week of June 13 to June 16, Site One was trapped
using Sherman Live traps and the pitfalls. One
trap was placed at each 30-foot interval. Each
site included approximately 55 traps. Traps were baited
with peanut butter and checked early every morning. The
next week, Site 3 was trapped using the same method. Site
2 has a severe problem with fire ants inhibiting any
trapping of this area. Retrapping will be tried
in the fall when ant populations may be lower. Results
of the trapping efforts can be found in Table 2. Table
3 and Chart 1 summarize data for all of the animals
caught and their abundance.
Below are links to the
reports in PDF format:
(Click here to
get a free version of Adobe Acrobat Reader)
Final Report
Lawrence
D. Fredendall
Department
of Management, College of Business & Public
Affairs,
Clemson
University
This is a report about
3 grants including their extension through 6/30/00.
I. Research Minigrant:
Project Title: Implementing
a Sustainable Environmental Management System at Clemson
University
Associate Professor Lawrence
D. Fredendall
This first mini-grant was
of great assistance in exploring the problems of installing
an Environmental Management System (EMS) here at Clemson
University. The creation of the web site and
interaction with students around that made it clear
that there is limited knowledge in the community and
limited information about the purposes and benefits
of an EMS. It was also made clear that there
is no organized resistance to the idea of implementing
an EMS, rather there is a lack of interest in implementing
the EMS.
A student intern, Tipparat
Laohavichien, developed alot of information about the
flow of materials and energy on campus. She found
that many administrators in Facilities Management are
interested in an EMS, but do not believe that there
is administration support for implementing a formal
EMS.
The most successful idea
to involve faculty and administrators in resource conservation
was to co-operate with the university's Kite Hill recycling
program and involve department faculty in this effort.
II. Visiting Scholar:
Dr. Peter Lemathe from
Ruhr Universitat in Bochum Germany came to Clemson
University the entire Fall semester of 1999. He
returned for a week visit in April, 2000. He
gave four different lectures on environmental management
systems at Clemson and met with at least 10 representatives
from industry about their EMS implementation and their
expectations for the future. He initiated
research projects with three Clemson faculty, Dr. Fredendall,
Dr. Balakrishnaan and Dr. Doost.
III. Extension
of Grant:
Following are the Activities
that were part of this extension:
- Refine recycling in
managment department and extend beyond copy paper.
- Continue development
of EMS on paper.
- Examine use of environmental
management tools in industry to see which are applicable
to the univerisity.
- Identify institutional
barriers to implementing recycling on Clemson's campus.
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Sustainable
Planning & Design Initiative
Project
Deliverables
Principal Investigators:
James B. London, Professor,
Dept. of Planning & Landscape Architecture, Clemson
University
John C.
Jacques, Professor,
School of Architecture, Clemson University
Umit
Yilmaz, Associate
Professor, Dept. of Planning & Landscape
Architecture, Clemson University
Project Overview:
The project involved three
different academic disciplines in the College of Architecture,
Art & Humanities at Clemson. Those disciplines
included architecture, city & regional planning
and landscape architecture. The principal focus
of the effort was to include sustainable development
concepts into planning and design studies. Other
components addressed faculty development, research
and professional interaction.
Student projects included
a semester long graduate architecture studio project
working with Public Interest Group, an Asheville group
working to provide downtown housing and commercial
opportunities. A series of design options were
developed for an infill mixed use project on Biltmore
Street as an alternative to exurban sprawl. A
graduate course in city and regional planning examined
the benefits and costs of in-town, city edge and remote
areas in terms of public service requirements.
Landscape architecture
projects included a highway interchange and roadway
stretch along Clemson Boulevard conducted by Professors
Yilmaz and Tai in conjunction with the South Carolina
Department of Transportation, Richland County, and
the Clemson Sandhills Research Station. The landscaping
plan that included drainage studies, xeriscaping and
visual improvements was well received and presented
at a press conference by SC DOT as a prototype for
other roadway interchanges in the state.
Other landscape studios
out of this project included design alternatives for
the city of Clemson's Recycling Center which has been
very successful in the past but which has grown incrementally. The
proposed plans provide functional delineation of activities
leading to greater operational efficiency as well as
visual improvements to make the facility more accomodating
to patrons. The last landscape project as part
of this effort was a reuse project for the Morrison
Elementatry School Annex in Clemson. Plans for
the site included clustered affordable housing and
a neighborhood park and greenspace incorporating environmentallly
sensitive design. The city's Community Development
program is moving forward with this concept plan.
In addition to work in
Asheville, a planning course project conducted a light
rail study for Greenville County/City. The project,
initiated by the Foothills Chapter of the Sierra Club,
examined light rail options along an abandoned rail
corridor purchased by Greenville County. The
plan includes proposed transit stops, design and funding
options. The project was awarded a best student
project award by the Sierra Club. A final project
looked at parking lot design in conjunction with the
city of Clemson and Upstate Forever. Conventional
parking lot design, improved design using the city
of Clemson's new design standards and variations to
those standards were simulated for two commercial parking
lots in the city. Appearance as well as economic
and environmental impacts were assessed.
To view images and reports
in PDF file format of the above mentioned projects
click below:
(Click here to
get a free version of Adobe Acrobat Reader)
Three thesis projects (listed
below) were completed with support from this project.
In addition to the principal
investigators, other faculty memebers participating
in these projects and related projects included:
Lolly Tai, Professor
of Landscape Architecture
Francis
F. Chamberlain, Associate Professor
of Landscape Architecture
Robert
J. Miller, Lecturer in
Architecture
Julie
P. Wilkerson, Lecturer
in Architecture
J.
Terrance Farris, Associate
Professor of City & Regional
Planning
Kerry
R. Brooks, Associate Professor
of City & Regional Planning
David
M. Deitrich, Assistant Professor
of Art
David
W. Houston, Lecturer in Art
Sydney
A. Cross, Professor of Art
Mary
T. Haque, Professor Horticulutre
Judy
D. Caldwell, Associate Professor
of Horticulture
Donald
L. Ham, Professor of Forestry
Studio Projects
Jacques - Asheville Downtown
Housing Project
Yilmaz
- Clemson Road, Recycling Center, Morrison
Annex Reuse
London
- Greenville Light Rail,
Clemson Parking Lots, Asheville
Downtown Housing
Theses
Nicole Hill - State Land
Conservation Programs (London)
Diane
Eldridge - Criteria for Selecting Land
for Conservation (London)
Pernille
Christensen - An Infill
Housing Project in Downtown
Asheville (Jacques)
Case Studies
London/Davis - Sustainable
Communities (3)
Paper
London, Yilmaz and Jacques. Environmentallly
Sensitive Building Practice: Getting to the Next
Step. Develoint Naturally Conference
New Initiatives to Incorporate
Sustainability into the Curriculum
Graduate Course in Sustainable
Development, Fall 19999 - London.
Final Report
Technical
and Market Feasibility of Using Dense Phase Carbon
Dioxide for Sterilization in Hospitals
Langdon Warner - University
of South Carolina
Wayne
Brannan - Medical University of South
Carolina
This final report was
summarized from a thesis directed by Michael A. Matthews,
PhD, and prepared by Heinz Kaiser in partial fulfillment
of requirements for the Master of Earth and Environmental
Management degree at the University of South Carolina. For
more information, contact Mr. Kaiser at heinz_kaiser@hotmail.com.
Click here to
view an article published in Medical Device & Diagnostic
Industry, based on Heinz Kaiser's work & SUI
funding in collaboration with MUSC.
Supercritical CO2 has been
considered as a method for the inactivation of bacteria
by several researchers (Kamihira et al., 1987; Taniguchi
et al., 1987; Wei et al., 1991; Ishikawa et al., 1995;
Enomoto et al., 1997; Kumagai et al., 1997; Dillow
et al., 1999). The purpose of this project is to determine
whether CO2-based technology is technically feasible
and cost-competitive for the sterilization of medical
devices in hospitals.
Specific Objectives
- Determine the cost,
technology basis, and rate of utilization of existing
sterilization processes in a working hospital
- Determine the technical
feasibility and cost of sterilization, disinfection,
and cleaning with liquid or supercritical carbon
dioxide in a typical hospital
- Compare current sterilization
methods with dense phase CO2 sterilization
Conclusions
Carbon dioxide based technology
is technically feasible for sterilization within the
parameters found in the literature. Manufacturers of
current applications (e.g. dry cleaning and precision
cleaning) would be able to design and build a prototype
that would satisfy the temperature, pressure, humidity,
and agitation requirements for CO2 sterilization. Moreover,
this CO2 sterilizer would have similar dimensions and
capacity to current ethylene oxide and hydrogen peroxide
equipment. Carbon dioxide is widely available. Several
companies distribute and sell carbon dioxide in different
grades.
The feasibility of marketing
CO2 based technology for the sterilization of medical
devices in hospitals is evident if the application
(market) is carefully targeted. The most likely market
for CO2 among existing applications is as a replacement
for EtO sterilizers. Carbon dioxide sterilization is
less expensive than ethylene oxide sterilization. In
addition, it does not have the environmental and health
problems related with the use of EtO (e.g. toxicity,
flammability, worker exposure, long cycle time, and
regulatory issues). Gas plasma hydrogen peroxide
sterilization is competitive with CO2 sterilization
in that both technologies have similar costs, their
cycle times are approximately the same, and they do
not produce toxic wastes.
Steam sterilization is
the most effective method for the sterilization of
heat-resistant instruments. The costs of autoclaving
are lower than those of CO2 sterilization. It is not
proposed that CO2 compete with steam for the sterilization
of heat and moisture stabile goods. However, CO2 sterilization
is a suitable method for the sterilization of heat-sensitive
instruments. The current trend in hospitals is to increase
the number of less invasive medical procedures, which
are performed with complex instruments that require
low-temperature sterilization methods.
Even though the use of
CO2 sterilization would have cost and environmental
advantages, a CO2 sterilizer will have to be approved
by the FDA. A market clearance may be capital and time
consuming. In addition, there is no guarantee that
a CO2 sterilizer will be approved. A sterilizer must
achieve the Sterility Assurance Level (SAL) under the
worst conditions. The sterilizer must be capable of
meeting the sterilization specifications every time
the process is performed. The process must maintain
the functionality of the product and its packaging.
These areas need further research.
Another important factor
for the introduction of a CO2 sterilizer is the market
structure. The sterilization market is dominated by
two companies: Steris Corporation and Getinge Industrier
AB. Their product service and availability are an important
factor of their success. Only two companies currently
compete with these market leaders Johnson & Johnson
and 3M. CO2 sterilizers would require similar service
and distribution in order to penetrate the market.
Future Work
- The sterilization effect
of CO2 on bacteria has been successful. However,
more resistant organisms must be tested (e.g. bacterial
spores) in order to determine the real effectiveness
of this promising technology. Such work is essential
for both optimization of the technology as well as
obtaining FDA approval.
- The material compatibility
issue must be addressed. For example, surgical instruments
and devices must be sterilized with the CO2 sterilization
method under various test conditions in order to
determine their integrity after the sterilization
process. This is likewise necessary for FDA approval.
- Although cleaning was
not the main focus of this thesis, the concept of
using CO2 for cleaning as well as sterilization could
have significant effects upon economics of hospital
operations. For this reason, the cleaning effect
of CO2 in surgical instruments and devices must be
studied. The ability to clean devices with long lumens
(e.g. flexible endoscopes) must be assessed.
- If CO2 continues to
show technical and commercial promise then several
more operational and procedural issues would have
to be developed. For example, a packaging material
compatible with CO2 sterilization must be found.
Several current packing materials must be tested
in order to identify one that ensures terminal sterilization.
Otherwise, a new non-woven material must be used.
Supplies such as biological indicators, chemical
indicators, and tape compatible with CO2 sterilization
must be found in order to ensure that the sterilization
conditions are reached. Hospitals, clinics, and labs
now rely on such materials for routine quality assurance.
Recommendations
Based on the results
of this research, carbon dioxide should be thoroughly
researched for use as a sterilant. The inactivation
process produced by the solvent power of CO2 in organisms
must be determined. The sterilization parameters,
such as pressure, cycle time, water content, and agitation,
must be determined in order to design and build a actual
size prototype (most of the research has been conducted
with small scale CO2 systems). The literature
review suggests that carbon dioxide requires a long
cycle time to kill bacterial spores. If that
is the case, carbon dioxide will not be suitable for
sterilization. However, disinfection and cleaning
with CO2 may be possible applications because the requirements
are less strict. Liquid carbon dioxide has been successfully
used in precision cleaning. This technology could
be directly applied to clean contaminated medical devices.
Sustainability
Issues in Sciences for Education
Majors
John Wagner - Professor
of Geology
Clemson
University
jrwgnr@clemson.edu
The original sustainability
grant funding was used to hire master teachers and
graduate students to work together to update the lab
manuals used in PH SC 107 and PH
SC 108 (earth science and physical science for
future elementary school teachers). A major part
of the update was incorporating sustainability concepts
into many of the lab exercises and creating a new activity
dealing with earth resources (renewable vs.non-renewable).
This was completely a teaching related process and
we believe it will benefit the students taking these
courses immensely.
The one related impact
which springs from this sustainability mini-grant involves
graduate courses for teachers that are offered irregularly
by the Geology Department (under the course designation
GEOL 790). Some of the concepts developed as
part of the mini-grant for the PH SC courses have also
been used in activities for in-service teachers. All
of these concepts will eventually find their way into
the classroom where
K-12 students
will also gain a better understanding
of why sustainability is such an over-riding
concern for their future society.
Final Report
Explore
Community Sustainability Model; Lay Groundwork for courses
and programs
Deborah Natvig - dnatvig@lander.edu
Elizabeth Bethel
Lander University
The Sustainable Universities
Initiative funded our project, Building a Sustainable
University Initiative Partnership at Lander University,
from August 15, 1999 through May 15, 2000. This
report describes activities initiated under the rubric
of the fellowship.
Activities Initiated
- In August 1999 we guided
the establishment of the New Haven Community Center. This
community-based facility is located squarely within
the most impoverished and troubled neighborhood in
Greenwood. Our aim was to establish a community-based
site that would serve as a laboratory for university-community
collaborations within a problem-based learning environment.
- Working within the
New Haven Community Center, the Lander Univeristy
School of Nursing has established a "Street Nurses" program
that provides health screenings and, when appropriate,
health provider referrals. The Street Nurses
program is staffed by senior nursing students under
the direction of an appropriately certified School
of Nursing faculty member, and maintains a regular
routine of activities at the New Haven Center. Contacts
average 25-35 adults per event.
- Working in collaboration
with Self Memorial Hospital Wellness Works, a community
outreach program, the Lander University School of
Nursing faculty and students have established a fixed
site-screening schedule for breast cancer, hypertension,
and tuberculosis. This program also provides
health provider referrals when appropriate. Screenings
deliver services to an average of 30-40 adults per
session.
- Crafting a collaboration
of faculty, student, and community resources, the
New Haven Community Center offers English classes
to non-English speaking community residents two nights
a week (Mondays and Tuesdays). The classes
average 15-20 adult learners per night.
- Using faculty and student
volunteers, the New Haven Community Center provides
social and recreational Saturday activities for children
and young people. These events have included
holiday parties, athletic clinics, and the center
is moving toward an after-school tutoring program
for elementary and middle school aged children that
will be staffed by Lander Univeristy faculty and
students and community volunteers.
- During the fall months
we worked with Professors John Graham and Richard
Fox (Environmental Science) to develop a campus project
that would serve as a problem based learning environment. We
identified a campus creek in need of restoration,
formed a planning committee that represented a broad
spectrum of Lander and Greenwood community resources
and interests, and assisted Professors Graham and
Fox in obtaining a small grant to serve as seed money
for the creek restoration project. That project
has moved forward and will be seeking greater funding
to support the efforts forged within the planning
committee's deliberations.
- Course Description: ES
110 Natural Resource Conservation
ES110 - Governor's Institute
for Natural Resource Conservation. This one-week
summer field workshop for high school students is offered
in collaboration with the South Carolina Department of
Natural Resources and the Conservation Districts of South
Carolina. Activities include lectures and field/laboratory
experiences with impacts of land use on water quality,
use of macroinvertebrates as water quality indicators,
water chemistry, hydrological engineering, watersheds,
cartography, forestry, Geographical Information Systems,
natural resources management, peer-tutoring, and a whitewater
raft trip. Students must use data collected
during the week to analyze a community-based land use
issue and design a strategy to improve water quality
in that community. Strategies are presented orally
at the culmination of the program. Graded on a
pass/fail basis. No prerequisites, 1 semester hour
credit.
These activities have served
as a good foundation for the development of an integrated
community studies program that initiates and supports collaborations
among University students, faculty, and community residents/agencies. However,
three crucial components of our fellowhip plan remain: (1)
site visits to Clemson's Strom Thurmond Institute and the
Sullivan Center (Bethel & Natvig); (2) site visitis
to one or more universitieis with established problem basesd
learning ctivities and curricula in place (selected Lander
faculty); and, (3) the formation of interdisciplinary Board
of Opportunity composed of students, faculty, and community
leaders.
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Final Report
A Cooperative
Learning Project for General Chemistry:
Fertilizer
and Water Quality
Melanie M.
Cooper and Eddie Case
Clemson
University
The laboratory
curriculum for the General Chemistry sequence
at Clemson University was modified several
years ago to incorporate principles of constructivism
and cooperative learning. The two-semester
lab program has students working in groups
of 3 to 5 students on three open-ended projects
each semester. Students are given a
problem to solve and then spend the several
weeks developing and implementing a plan
for solving the problem. At the end
of the project students are required to submit
a written formal report on the project and/or
give an oral report on the project.
While the lecture
portion of the Beginning General and Organic
Chemistry sequence (which serves our non-science
majors) is taught utilizing many of the principles
of constructivism and cooperative learning,
the laboratory curriculum remains mostly
prescriptive and confirmational. We
have developed an environmental based project
which is cooperative in nature for use at
the end of the first semester of the course.
In this project,
students research the major ingredients of
commercially available fertilizers including
the macronutrients, secondary nutrients,
and micronutrients. Further, they are
to find the sources for each of the three
macronutrients. Once identified, they
must determine procedures for confirming
the presence of the macronutrients in a sample
of fertilizer and, if possible, the percent
by mass of the macronutrient present. Students
test their procedures on known compounds
provided in the laboratory and, once satisfied
with the procedures, use them to test the
fertilizer. Finally, to investigate
the possible impact of the use of fertilizer
on water supplies, students develop a model
for application of the fertilizer to soil
and for testing for the presence of the macronutrients
in groundwater. Students complete the
project by giving an oral report on their
findings.
Completion of
this project reinforces such concepts as
chemistry of solutions, qualitative and quantitative
analysis, ions and ionic compounds, precipitation
reactiosn, and environmental chemistry. Laboratory
procedures which are utilized may include
flame tests, gravimetric analysis, vacuum
filtration, and qualitative tests for ions. A
copy of the project follows.
FERTILIZER
AND WATER QUALITY
Fertilizers are
commercially available for a variety of specialized
applications: for lawns, house plants,
gardens, and farming applications. One
fertilizer application that has been of particular
interest has been the use of fertilizers
on golf courses. It is feared that
the large quantities of fertilizers used
to keep fairways and greens lush and beautiful
are also damaging surface and ground water
supplies around the courses. Fertilizers
do, in fact, contain a number of compounds
that may cause specific problems in water
supplies if they are present in high enough
quantities. The question then becomes, “how
much is too much?” and “how much
fertilizer stays where it’s put?”
You have been
assigned to a group of researchers working
for a local golf course. The owner
has several concerns about the use of fertilizers
on his course. First, he does not trust
the manufacturer. He wants to know
if the stuff he has bought really contains
what it says it does. Secondly, he
has heard that the government may soon pass
regulations on how much of the nutrients
present in fertilizer can end up in ground
water supplies. Your team has been
hired to address these concerns.
GOALS
1. Determine
the nutrients most commonly present in commercially
available fertilizers. You will find
these fall into three categories: macronutrients,
secondary nutrients, and micronutrients.
2.
Determine the sources
for these nutrients
in commercially available
fertilizers.
3.
Determine for which of the
macronutrients can you perform
qualitative and quantitative
tests.
4.
Practice
these
tests
on
known
compounds.
5.
Perform
these
tests
on
the
fertilizer(s)
provided
by
the
golf
course
owner.
6.
Develop
a
model
for
determining
the
amount
of
these
nutrients
entering
the
groundwater
supply.
7.
Use
this
model
to
determine
if
these
nutrients
may
be
present
in
groundwater
after
their
application.
Known Compounds
Samples of compounds
which contain the macronutrients found in
fertilizer are available in the lab. You
may use these to determine properties of
these compounds which may be useful in developing
qualitative and quantitative tests. You
may want to investigate properties such as
odor, solubility, and others. Remember,
you have a limited supply of your fertilizer
so you will want to test your procedures
before you carry them out on the fertilizer
itself.
Results
Having already
done a couple of short, single lab period,
open-ended projects, students are fairly
well prepared for the larger project presented
here. Most begin by going to the internet
to find the required information regarding
the nutrients in fertilizer and their primary
sources. The nutrients present in most
commercial fertilizers which are identified
as macronuttients are nitrogen, potassium,
and phosphorous. Once this is determined
and the sources are identified (urea or an
ammonium salt, K2O, and a phosphate salt,
respectively), students begin the search
for tests for these compounds. In our
labs, students use a computer based resource,
Super ChemLab, which is available online
at http://chemed.ces.clemson.edu/SCL. Urea
and ammonium can be determined qualitatively
by adding 6M NaOH which produces a strong
smell of ammonia, The presence of potassium
can be determined using a flame test, although
it will be masked by the presence of sodium
in the fertilizer. Phosphate ion can
be determined gravimetrically by precipitation.
The most common
model developed for simulating application
of the fertilizer is to apply it to a sample
of potting soil and collecting the water
that runs through. After allowing the
soil to dry between lab periods, students
again run water through the soil and collect
it for testing. Most discover that
phosphate and ammonia are present in the
water.
In laboratory
evaluations conducted at the end of the semester,
students express a particular interest in
the projects which involve real-life situations. In
fact, this is a frequent response to questions
regarding what they liked best about the
labs. We have found that students will
spend more time on this type of project than
those more prescriptive in nature. Because
they are not presented with a list of steps
they must complete in order to leave lab,
they are more likely to spend more time doing
research and investigating what is actually
happening as they do the experiments. We
have also found that students become more
adept at approaching and solving problems
as they do more open-ended projects. This
is evidenced by the decreased amount of guidance
required for projects such as this one done
near the end of the semester.
As we develop
and implement more of this type project in
the labs for the Beginning General and Organic
Chemistry course, we plan to investigate
how students in labs based on this type of
project perform in the lecture section of
the course compared to those in more traditional,
prescriptive labs. We would also like
to determine how it affects their attitudes
toward the course, the lab, and chemistry
in general. |
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