green mapping - university of wisconsin–whitewater · going green may represent various ideas; as...
TRANSCRIPT
Pavel Crha
761 Supply Chain Systems
University of Wisconsin Whitewater
Professor Sameer Prasad
Fall 2008
Green Mapping
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Contents
Introduction .................................................................................................................................................. 2
What Has Been Done .................................................................................................................................... 2
University of Massachusetts Amherst .......................................................................................................... 3
University of Chicago .................................................................................................................................... 5
Harvard Green Campus Initiative .................................................................................................................. 6
University of Minnesota – Morris ................................................................................................................. 7
Importance of Mapping ................................................................................................................................ 7
UW Whitewater Campus .............................................................................................................................. 8
Assumptions .............................................................................................................................................. 8
The UWW Green Map ............................................................................................................................... 9
Conclusion ................................................................................................................................................... 13
Bibliography ................................................................................................................................................ 14
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Introduction
Green energy and all related issues have been gaining in popularity during the last decade. On one hand,
the goal of making processes and energy greener is quite obvious. On the other, the fact that the only
way to make it work is to get everyone involved makes it more complicated.
With no doubt, no plan can be followed without clear vision and understanding of the issue. Mapping
the current situation on campus in terms of recycling and green matters might be a very helpful tool
when trying to determine what has to be done in order to achieve given goals. This part of the project
examines what has been accomplished on other campuses in the U.S., suggests one possible technique,
and uses that technique when mapping the current status of making the UW-Whitewater “green”.
What Has Been Done
A significant number of US college campuses have been trying to implement environmentally friendly
approaches during the last decade in order to make them greener. One may not be surprised then that
various initiatives and organizations have been created to achieve that goal. An example of such an
initiative is the Green Campus Initiative (GCI - The Institute for Sustainable Energy) at Eastern
Connecticut State University. Not only has the GCI been offering numerous workshops to promote and
teach strategic thinking for greening university campuses, it also provides countless resources and
contacts for those truly interested in this type of change.
Going green may represent various ideas; as for university campuses, Figure 1 shows the basic steps
toward sustainability that have to be, to some extent, employed, regardless of the kinds of green
initiatives adopted by a campus, and should be viewed as essential when developing a master plan. As in
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any other area of research or business,
Thus, “Develop a Master Plan” is emphasized
but also to show that the master plan is
recycling and ending with controlling and analyzing data.
Figure 1
Basic Steps toward Sustainability
University of Massachusetts Amherst
UMass began efforts to track its carbon dioxide emissions in 2002, a
American College and University President’s Climate Commitment. This commitment is an effort among
colleges and universities to address global warming by garnering institutional commitments to
neutralize greenhouse gas emissions
Preserve solar
any other area of research or business, developing a plan is the very first step to achieve given goals.
is emphasized in Figure 1 not only to pinpoint the importance of planning
master plan is connected to and aligns with all the actual steps, beginning with
controlling and analyzing data.
University of Massachusetts Amherst
UMass began efforts to track its carbon dioxide emissions in 2002, and in April 2007 signed the
American College and University President’s Climate Commitment. This commitment is an effort among
colleges and universities to address global warming by garnering institutional commitments to
neutralize greenhouse gas emissions.
Develop a master plan
Preserve green space
Minimize on campus driving
Mantaing indigenous plant life
Preserve solar access
Perform review of all expansion
plans
plan is the very first step to achieve given goals.
the importance of planning
all the actual steps, beginning with
nd in April 2007 signed the
American College and University President’s Climate Commitment. This commitment is an effort among
colleges and universities to address global warming by garnering institutional commitments to
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UMass has a long history of submitting emission data to the state
Green Initiatives). Figure 2 shows individual pollutants UMass tracked to compute its carbon dioxide,
nitrous oxide and methane footprints. Per the Universit
to collect the data; Table 1 also shows individual pollutants with corresponding sources of data.
Figure 2
Annually Submitted Data to the State
Table 1
Sources of Data
Emission Source
Coal
Electricity
Natural Gas
Fuel Oil
Paper Cubes
Propane
Gasoline
Diesel
Air Travel
Vehicle Rental
Commuting
Animal Husbandry
diesel
propane
natural gas
UMass has a long history of submitting emission data to the state (Environmental Performance and
. Figure 2 shows individual pollutants UMass tracked to compute its carbon dioxide,
nitrous oxide and methane footprints. Per the University’s website, various sources were used in order
to collect the data; Table 1 also shows individual pollutants with corresponding sources of data.
State
Emission Source Data Source
Plant daily engineer’s log
Electric Invoices
Natural Gas Gas Invoices
Plant daily engineer’s log
Paper Cubes Plant daily engineer’s log
Utility Invoices
Fuel Throughput
Fuel Throughput
Controller’s Office
Vehicle Rental Controller’s Office
Commuting Rideshare Program
Animal Husbandry Various Academic Departments
CO2,CH4, N2O
coal
electricity
gasoline
paper cubes
biodisel
diesel
natural gas
Environmental Performance and
. Figure 2 shows individual pollutants UMass tracked to compute its carbon dioxide,
y’s website, various sources were used in order
to collect the data; Table 1 also shows individual pollutants with corresponding sources of data.
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University of Chicago
The University of Chicago has been engaged in discussions, research and action around a broad array of
environmental sustainability topics for a few years now. One interesting thing Chicago has done has
been to initiate a “Program on the Global Environment” at their national laboratories and across the
campus. Much of the institutional work is led by the Sustainability Council and Facilities Services. As
their statements suggests, Chicago seeks to advance efforts and to develop innovative ways to use
resources wisely (University of Chicago).
Per Chicago’s website, environmentally preferable purchasing empowers the local and global economy.
As a result, Chicago is engaged in a number of sustainable purchasing projects and supports sustainable
purchasing in the community. Figure 3 depicts some of the university’s purchasing habits and
approaches. Perhaps the most important to be noted is the use of wind power, which currently provides
10 percent used of the energy used for campus dorms. Another more practical example is the
university’s Buy Site which enables university staff to purchase environmentally friendly office products
and therefore help them make their work places greener.
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Figure 3
Purchasing at the University of Chicago
Harvard Green Campus Initiative
Besides numerous workshops, courses and programs at Harvard University, the Greenhouse Gas
Inventory, which tracks the energy footprint Harvard produces, has been on
The inventory maintains an updated inventory of greenhouse gas e
chilled water production and with purchased electricity
One of the very interesting web site links that
helps to promote green practices on a broader
in the public and private sectors evaluate, compare and select desktop computers, notebooks and
monitors based on their environmental attributes.
University's
Purchasing at the University of Chicago
Harvard Green Campus Initiative
Besides numerous workshops, courses and programs at Harvard University, the Greenhouse Gas
Inventory, which tracks the energy footprint Harvard produces, has been on-going since the nineties.
The inventory maintains an updated inventory of greenhouse gas emissions associated with steam and
chilled water production and with purchased electricity (Green Campus).
One of the very interesting web site links that Harvard recommends that its student access, and which
helps to promote green practices on a broader campus scale is epeat.net. This website
in the public and private sectors evaluate, compare and select desktop computers, notebooks and
monitors based on their environmental attributes.
Wind Power
University's Buy Site
Local Produce
Besides numerous workshops, courses and programs at Harvard University, the Greenhouse Gas
going since the nineties.
missions associated with steam and
Harvard recommends that its student access, and which
campus scale is epeat.net. This website helps purchasers
in the public and private sectors evaluate, compare and select desktop computers, notebooks and
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University of Minnesota – Morris
The UM-Morris community had been very proactive in environmentally friendly initiatives since 2000.
These efforts have grown to levels of national leadership and have touched nearly all aspects of campus
life – power, food, water, transportation and waste stream infrastructure. It also needs to be noted that
state and national resources (grants) have advanced their efforts.
Morris has also been able to express the savings of using green resources in terms of dollar values.
Residence halls and other campus buildings conserve more than two million gallons of water annually,
saving $15,000 each year. Recently, Morris recycled 67 tons of waste in one year. At $207 per ton, the
campus realized a savings of $13,969 by recycling aluminum, corrugated cardboard and office paper,
among other refuse, instead of throwing it into the garbage (University of Minnesota Morris).
Importance of Mapping
As it has been noted earlier, mapping can offer various advantages to its users. First, it is a valuable help
in terms of making statistical data better understood by visualizing inputs and outputs. Second, when
properly set up, mapping may be able to depict bottlenecks in the whole system - in our case a greener
campus - and what categories need to be prioritized over others.
While many universities are becoming greener, we were not able to identify any direct mapping that
those universities has been using. One reason may be the simple fact of no university having any staff
responsible for or assigned to the task of depicting campus plans in a graphic format. Another issue with
mapping out a university campus in terms of green energies and pollution is that there is no framework
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available. This may suggest problems, such as the possibility that people are not currently sure what
exactly is to be considered and how to measure different impacts.
UW Whitewater Campus
This part of the project focused mainly on creating a UW Whitewater Green Map that would show
different footprints per individual buildings. Assumptions, calculations and the Green Map follow.
Assumptions
In order to create a UWW map showing pollution footprints of different buildings, students, faculty, staff
and departments, the following assumptions were used. These assumptions are based on the survey
and data provided by the UWW Registrar’s Office.
o Average number of classes per student is 5
o Carlson Hall (students, faculty, staff, and departments) represents a behavior pattern for all
other buildings. This pattern includes, but is not limited to, the ratio of commuters vs. non-
commuters, consumption and other ratios per student, faculty, staff and department.
o Number of faculty, staff, departments and offices remains constant over the years
o Off-campus classes and undetermined classes are disregarded
o Only buildings in which classes are taking places are taken into account
o Green Map is created based on fall semester 2008 data
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The UWW Green Map
As Microsoft Excel was used to calculate all the necessary data and to create the map, please see the
document “UWW Green Map.xlsx” for the actual results and calculations described below.
Figure 4 shows the data provided by the UWW Registrars office. These data provide basic information
about all classes and the number of students for the fall semester of 2008. After sorting and filtering the
data, the total number of students for each building was obtained. This number does not consider the
fact that one student may take two or more classes in one building. An average number of classes per
student therefore needed to be determined. As mentioned above, the assumed number of classes per
students is five, which also corresponds with the statistical data shown on the UWW website (UWW
Enrolment Statistics). Figure 5 also supports this assumption.
Figure 4
Data Provided By the Registrar’s Office
Source: UWW Registrar’s Office
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Figure 5
Calculation of The Average Number of Classes per Student
Knowing the total number of students and percentages of students per individual building, a simple
calculation gives us the approximate number of students attending classes in individual buildings, as
shown in Figure 6. Having these percentages and data on enrollments for multiple years and semesters
(UWW Enrolment Statistics) may also help to calculate different forecasts.
Figure 6
Total Number of Students per Building
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In order to find out how many staff, departments and administrative offices are there in different
buildings, ratios of faculty to staff, departments and administrative offices were used. Figure 7 shows,
for instance, a calculation of the Faculty/Staff ratio and then the actual number of staff for each
building. In this example, for 10 faculty members there are 3 staff members. Having the data on the
number of faculty for each college (Academics) helps us determine the number of staff for each building.
Figure 7
Calculation of the Faculty/Staff Ratio
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Knowing the number of students, faculty, staff, departments and administrative offices for each building
as well as the average consumption per these individual entities, carbon oxide and energy footprints
(please see Forecasting and MRP chapters of this project) could be calculated. Figure 8 shows the final
results for individual buildings.
Figure 8
Footprints
Knowing all the data, the Green Map for the UW-Whitewater campus was created using Microsoft Excel.
As figure 9 shows, basic data are represented in this map. For more details regarding individual
buildings, one may click on a particular building to obtain the details. Please see the UWW Green
Map.xlsx file.
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Figure 9
The Green Map
Conclusion
Mapping can be a very powerful tool in terms of making difficult statistical data easier to be understood
and helping to identify areas which need the most attention: in the case of green energy, those areas
that are the greatest pollutants. However, mapping is only as good as the data provided. Emphasis
therefore needs to be put on collection, accuracy and reliability of the data itself.
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Bibliography Academics. (n.d.). Retrieved October 14, 2008, from University of Wisconsin - Whitewater:
http://www.uww.edu/academics/colleges/index.php
Environmental Performance and Green Initiatives. (n.d.). Retrieved October 20, 2008, from University of
Massachusetts : http://www.umass.edu/epac/carbon.htm
Green Campus. (n.d.). Retrieved October 21, 2008, from Harvard University:
http://greencampus.harvard.edu
The Institute for Sustainable Energy. (n.d.). Retrieved October 20, 2008, from
http://www.easternct.edu/depts/sustainenergy/
University of Chicago. (n.d.). Retrieved October 21, 2008, from Sustainability:
http://sustainability.uchicago.edu
University of Minnesota Morris. (n.d.). Retrieved October 21, 2008, from Green Campus:
http://morris.umn.edu/greencampus/
UWW Campus Map. (n.d.). Retrieved November 15, 2008, from Univesity of Wisconsin - Whitewater:
http://www.uww.edu/Campus/
UWW Enrollment Statistics. (n.d.). Retrieved October 28, 2008, from University of Wisconsin -
Whitewater: http://www.uww.edu/registrar/stats/