Vol 66, No. 4 - International Technology and Engineering Educators ...
Vol 66, No. 4 - International Technology and Engineering Educators ...
Vol 66, No. 4 - International Technology and Engineering Educators ...
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Table 1. Example of technology education integration with other academic areas.<br />
(Courtesy of the VisTE Project: Visualization in <strong>Technology</strong> Education.)<br />
*Prosthetics<br />
(Unit from<br />
VisTE<br />
materials)<br />
*Biometrics<br />
(Unit from<br />
VisTE<br />
materials)<br />
*2-D<br />
Modeling/<br />
Insulation<br />
(Unit from<br />
VisTE<br />
materials)<br />
English<br />
Write a report<br />
on the current<br />
technologies<br />
used in<br />
prosthetics<br />
Write about<br />
ethics <strong>and</strong><br />
privacy issues<br />
Write a data<br />
manipulation<br />
report<br />
Calculate<br />
volume <strong>and</strong><br />
work area<br />
Calculate<br />
physical<br />
positioning<br />
Graph X <strong>and</strong><br />
Y data-driven<br />
models<br />
*Materials published through Delmar Learning<br />
** <strong>International</strong> <strong>Technology</strong> Education Association, 2000/2002<br />
Math Science History <strong>Technology</strong> **STL<br />
Discuss medical<br />
anatomy <strong>and</strong><br />
physiology<br />
Discuss<br />
physical <strong>and</strong><br />
behavioral<br />
characteristics<br />
Research<br />
biotechnologies<br />
<strong>and</strong> insulation<br />
used to control<br />
temperature<br />
Make a photojournal<br />
of<br />
current <strong>and</strong><br />
past uses of<br />
prosthetics<br />
Create timeline<br />
of development<br />
of devices<br />
Create timeline<br />
for the use of<br />
insulation<br />
Research,<br />
design, create<br />
physical<br />
prosthetic<br />
Design a<br />
behavioral/<br />
physical device<br />
Present<br />
visualizations<br />
on how<br />
insulation<br />
works<br />
11<br />
6<br />
8<br />
14<br />
3<br />
11<br />
6<br />
15<br />
8<br />
9<br />
10<br />
20<br />
There are multiple methods of measuring the success<br />
of the integration. The end-of-grade test assessment is<br />
an indicator of integration success, given that programspecific<br />
competencies are addressed in the process. Student<br />
surveys <strong>and</strong> teacher logs can also be used to determine the<br />
perception of effectiveness. Evaluation of student portfolios<br />
provides an indication of the success of the integration.<br />
All of these materials should be brought to the following<br />
summer in-service to further analyze the integration <strong>and</strong><br />
to incorporate changes to the model for the following year.<br />
Follow-up qualitative interviews of teachers, students, <strong>and</strong><br />
parents can provide further insight into the successes <strong>and</strong><br />
failures in the integration process that are not otherwise<br />
directly measurable.<br />
Conclusions:<br />
Successful integration is hindered by compartmentalized<br />
education. Many times educators, including technology<br />
teachers, become territorial over content <strong>and</strong> subject<br />
matter. Direct continuity between content across subject<br />
areas serves as an agent that conveys relevance to students<br />
by allowing them to observe a sequential process in<br />
place of disconnected educational components. Merging<br />
content requires extensive preparation on the part of the<br />
instructor in order to provide the greatest benefit to the<br />
student. A natural progression between integral curricular<br />
components enhances student outcomes.<br />
References<br />
Berry, R.Q., Reed, P.A., Ritz, J.M., Lin, C.Y., Hsiung, S.<br />
& Frazier, W. (2005). STEM initiatives: Stimulating<br />
students to improve science <strong>and</strong> mathematics<br />
achievement. The <strong>Technology</strong> Teacher, 64(1), 23-29.<br />
<strong>International</strong> <strong>Technology</strong> Education Association.<br />
(2000/2002). St<strong>and</strong>ards for technological literacy:<br />
Content for the study of technology. Reston, VA: Author.<br />
Powers, S.E. & DeWaters, J. (2004). Creating project-based<br />
learning experiences university-k-12 partnerships.<br />
Published Proceedings of the American Society<br />
for <strong>Engineering</strong> Education Frontiers in Education<br />
Conference, Savannah, GA, Session F3D.<br />
Schafer, M.R., Sullivan, J.F., & Yowell, J.L. (2003). St<strong>and</strong>ardsbased<br />
engineering curricula as a vehicle for k-12<br />
science <strong>and</strong> math integration. Published Proceedings<br />
of the American Society for <strong>Engineering</strong> Education<br />
Frontiers in Education Conference, Boulder, CO,<br />
Session F3A.<br />
Venville, G., Rennie, L., & Wallace, J. (2004). Decision<br />
making <strong>and</strong> sources of knowledge: How students<br />
tackle integrated tasks in science, technology, <strong>and</strong><br />
mathematics. Research in Science Education, 34,<br />
115-135.<br />
Aaron C. Clark, Ed.D., is an associate<br />
professor in the Department of Mathematics,<br />
Science, <strong>and</strong> <strong>Technology</strong> Education at <strong>No</strong>rth<br />
Carolina State University in Raleigh, NC. He<br />
can be reached via email at aaron_clark@<br />
ncsu.edu.<br />
Jeremy V. Ernst, Ed.D., is a visiting<br />
assistant professor in the Department of<br />
Mathematics, Science, <strong>and</strong> <strong>Technology</strong><br />
Education at <strong>No</strong>rth Carolina State<br />
University in Raleigh, NC. He can be reached<br />
via email at jeremy_ernst@ncsu.edu.<br />
26 • The <strong>Technology</strong> Teacher • December/January 2007