The Story Behind the Campus
Lawn Project
The director of the Grounds and Maintenance Department for the school
district asked students in a chemistry class to advise him on the most
effective, economical, and environmentally safe grass fertilizer for
the lawns in the school district. The students were to produce an analytical
report with detailed procedures and conclusions and to make a recommendation
to the director.
The students were given seven weeks to complete the project. They were
responsible for all arrangements, such as making contacts with outside
resources and obtaining the permissions they needed to complete the
plan. The students visited other campuses to collect soil samples, both
in class time and during their own time. They also used time outside
school to complete the project research, analysis, and write up.
The students divided into groups with responsibility for specific components
of the project plan. The director of the Grounds and Maintenance Department
worked closely with the class during the project both as an advisor
and as a client who would benefit from the project. The teacher facilitated
the project and assisted the students as a resource person. Much of
the project was completed as practical science work.
The written work produced as part of Applied Learning projects commonly
contains some errors. Documentation of these projects includes notes,
journal entries and plans that students produced as working documents
for their personal use. These kinds of documents were not prepared with
the expectation of eventual publication and they have not been revised
for inclusion in this book.
It is expected that finished work produced as part of an Applied Learning
project will contain virtually error free writing.
What the work shows
b
Problem Solving: The student troubleshoots problems
in the operation of a system in need of repair or devises and tests ways
of improving the effectiveness of a system in operation; that is, the
student:
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explains the structure of the system in terms of its: |
| |
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logic, sequences, and control; |
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operating principles, that is, the mathematical, scientific
and/or organizational principles underlying the system; |
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analyzes the way the system works, taking account of
its functional, aesthetic, social, environmental, and commercial requirements,
as appropriate, and using a relevant kind of modeling or systems analysis; |
| |
evaluates the operation of the system, using qualitative
methods and/or quantitative measurements of performance; |
| |
develops and tests strategies to put the system back
in operation and/or optimize its performance; |
| |
evaluates the effectiveness of the strategies for improving
the system and supports the evaluation with evidence. |
The students investigated the requirements for maintenance of campus
lawns in the school district in order to arrive at recommendations to
improve the effectiveness and efficiency of existing operations.
These documents show the plan the students developed for undertaking the
project and the way they sequenced the work. These show awareness of the
nature of the system they were researching and the range of requirements
that needed to be taken into account.

a
Tools and Techniques for Working With Others: The student participates
in the establishment and operation of self-directed work teams; that is,
the student:
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defines roles and shares responsibilities among team
members; |
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sets objectives and time frames for the work to be completed; |
| |
establishes processes for group decision
making; |
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reviews progress and makes adjustments as
required. |
The timetable shows that
students shared the load of the work required for the project by forming
groups, each with responsibility for a specific component of the project.
The information recorded here also provides evidence of cooperation among
the groups to set objectives and maintain time frames. However, the available
evidence does not allow for commentary on the effectiveness of the work
processes the students adopted or the strategies they adopted for reviewing
their progress. The students produced this table for their own use and
did not revise it for publication.
a
Information Tools and Techniques: The student gathers information
to assist in completing project work; that is, the student:
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identifies potential sources of information to assist
in completing the project; |
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uses appropriate techniques to collect the information,
e.g., considers sampling issues in conducting a survey; |
| |
interprets and analyzes the information; |
| |
evaluates the information in terms of completeness,
relevance, and validity; |
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shows evidence of research in the completed project. |
|
The students used library research to investigate the types of grass
used in the campus lawns, including the maintenance requirements
for each type. They also undertook field research to measure the
campus lawns and collected soil samples for analysis. They researched
the economics-related aspects of the system by directly calling
suppliers and comparing costs.
Note: The wide range of lawn areas of the various
school campuses raises doubt about the adequacy of the sample used
to arrive at the estimate of total lawn area. Given its derivation
from the sample, the use of the exact figure (1,426,127 square feet)
for some calculations is inaccurate. Rounding of the figure to 33
acres would have been preferable, as was used in Organic vs.
Inorganic. |
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b
Problem Solving: The student troubleshoots problems in the operation
of a system in need of repair or devises and tests ways of improving
the effectiveness of a system in operation; that is, the student:
| |
explains the structure of
the system in terms of its: |
| |
|
logic, sequences, and control; |
| |
|
operating principles, that
is, the mathematical, scientific and/or organizational principles
underlying the system; |
| |
analyzes the way the system
works, taking account of its functional, aesthetic, social,
environmental, and commercial requirements, as appropriate,
and using a relevant kind of modeling or systems analysis; |
| |
evaluates the operation
of the system, using qualitative methods and/or quantitative
measurements of performance; |
| |
develops and
tests strategies to put the system back in operation and/or
optimize its performance; |
| |
evaluates the
effectiveness of the strategies for improving the system and
supports the evaluation with evidence. |
The students studied the scientific principles underlying the maintenance
of the system, and analyzed the design and management of the system,
especially with regard to environmental requirements and cost analysis.
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