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Technology education prepares students to be
capable of adapting and productively functioning in
a world of dynamic technological change. Technology
education promotes technological literacy and
training in the process of learning "how to learn"
and "how to think."
ITE, at the middle school, is a course of study
focusing on an introduction to technology: its
history and evolution, systems, resources, and
controls. The fundamental teaching strategy is to
provide an interdisciplinary approach with an
emphasis placed on "thinking" through design and
problem solving.
Students solve contemporary technological
problems by employing knowledge from all
disciplines and following a systematic outline
called a "design model." They assume roles of
designer, engineer, programmer, fabricator,
evaluator, and consumer, while working individually
or cooperatively on teacher-led or self-directed
problems presented with specific limitations.
Students become the ultimate decision makers in the
process. They learn to compare their work to the
"design brief" and to recognize a successful
prototype or performed activity, through
self-evaluation, and to overcome failures with
research, design, and documentation. Students
acquire computer skills, which they eventually use
to store and retrieve information, make working
drawings, program models and manage technological
systems.
INTRODUCTION TO
INDUSTRIAL AND TECHNOLOGY EDUCATION
GRADE 6 (9
weeks - 2 days per week)
This course establishes a basic foundation in
technological literacy, exposing students to the
value and diversity of industrial technology.
Classroom activities are designed and implemented
to foster an atmosphere receptive to creativity,
innovation, and invention. Students individually
and cooperatively brainstorm, design and draw
solutions to problems, collect and evaluate
research, calculate sizes, predict outcomes, design
procedures, construct prototypes, test and evaluate
solutions, and share information and ideas. They
develop a working balance between risk-taking and
more conservative or "tried" approaches to problem
solving. Failure is viewed as part of the learning
process and accepted as a starting point from which
to begin anew.
Students build functional models or prototypes
using a variety of raw materials. For example,
while building with
LegoTM
elements, students learn practical knowledge
relative to simple structures, simple machines and
the development and design of mechanical
systems.
INVESTIGATIONS IN
INDUSTRIAL AND TECHNOLOGY EDUCATION
GRADE 7 (18
weeks - Meets every 3 days on a 6-Day Cycle)
The seventh grade ITE course is designed to
further develop students' understanding of
information and procedures learned in the sixth
grade ITE course. Students design and develop
solutions to more challenging situations and
problems. Hands-on activities allow students to
both individually and cooperatively explore various
areas of industrial technology in greater
detail.
Using Lego
dactaTM
motorized building sets, students design solutions
to problems employing gear, pulley and chain drives
for power transmission. They apply their new
knowledge and understandings in physical science to
the design and construction of motor-driven
prototypes and employ concepts of gear ratios.
Students design and construct aerodynamic,
CO2-powered, dragster-type vehicles,
designing and sketching possible solutions, drawing
full scale working drawings, and producing
prototype vehicles while working safely on a
variety of hand and power tools machinery.
EXPLORATIONS IN INDUSTRIAL
AND TECHNOLOGY EDUCATION
GRADE 8 (18
weeks - Meets every 3 days on a 6-Day Cycle)
The 8th grade ITE program provides an
opportunity for students to independently or
cooperatively pursue their special interests by
becoming active participants and in one or more of
a variety of exploratory technology modules.
Areas of investigation and exploration include
but are not limited to:
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1.
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Individual product research, design and
development.
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2.
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Structural engineering through bridge
and tower building.
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3.
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Research, design, and development of
alternative transportation systems, such
as magnetic levitation or solar powered
vehicles.
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4.
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The building and computer programing of
robotic models and technological
systems.
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5.
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Designing an independent study project
for those highly motivated students with
special interests outside of the regular
program of studies.
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