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Vol. 3 No. 1
January 2009 |
Technovations in Transportation
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Members of the Region X of University
Transportation Centers have a roll in the
Transportation Education Development Pilot Program
awarded by the Federal Highway Administration to
NIATT in the fall of 2008.
Working in three distinct teams, faculty from the
University of Idaho, Portland State University,
University of Alaska (Fairbanks) and University of
Washington will develop four course modules. These
modules will be developed in a unique distance-based
learning environment. The efficacy of the modules in
meeting program goals and providing a means to
disseminate materials and lessons learned to a
national audience will be tested.
What Will a Ten-Week Course Module Look Like?
The modules will be learner-centered, built upon
the researchers' extensive experience in creating
active, problem-based learning environments for our
transportation students, and validated by
pedagogical research funded through the National
Science Foundation and others. Too often,
transportation courses focus on the use of a
particular tool, such as traffic simulation or
transportation planning models. Research has shown
that reorienting a course to focus on a generative
problem, then allowing the student-instructor teams
to develop the material needed to solve the problem,
builds not only the technical skills required but
also the communication and collaboration skills
needed in today’s work environment. A substantial
body of research has shown that the outcomes from
such learner-centered environments are more
significant than those produced by more traditional
educational approaches.
A course module would begin with a two day
on-site workshop involving the participation of the
instruction team and all students. During this
workshop, the generative problem will be described
and the process and schedule to address the problem
will be developed. Team building exercises will be
conducted to develop communications and work group
processes that will be used during the course. The
instruction team will present the learning
objectives that will guide the course and the
available tools for addressing the problem.
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Enhanced learning and self-assessment
skills will contribute to the creation
of an engineering workforce of
“life-long learners.” According to the
National Academy of Engineering, this is
an imperative for the 21st century.
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Subsequent to the initial workshop, weekly
two-hour meetings will be held during the ten-week
course via video conferencing facilities. Mini-teams
will be formed at each video conferencing site.
Mini-lectures (about 20 minutes in length) will be
presented in which a specific sub-problem for the
week will be described.
The remaining class period will be focused on
participant teams working on the problem and
developing material to address the assigned problem.
Selected student teams will summarize the work
completed during the class. Students will prepare
for each subsequent class through assigned readings,
group problems, writing exercises or reflective
self-assessment.
An electronic environment will provide the tools
for instructors and participants to collaborate and
communicate. Video conferencing will be used for all
class meetings. All course materials will be stored
on the class website. Webinars, wikis, threaded
email discussion groups and instant messaging tools
will also be available.
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2009 Student-of-the-year,
Nicholas Harker, has been an outstanding student (he was
named Mechanical Engineering's Outstanding Senior in May 2007), an
outstanding leader in the IEWorks as a mentor,
and an outstanding member of the
UI's Clean
Snowmobile Team.
Nick Harker is a mechanical engineering graduate student at the
University of Idaho, working with NIATT and the UI Clean Snowmobile
Challenge (UICSC) Team. Nick received his BS in mechanical engineering
in May 2007 and his MS in May 2009. Nick will begin work at INL in the
summer of 2009.
He has been involved with the UI-CSC Team for the past five years and is
now their graduate student mentor, leading the engine development and
calibration efforts for the team. His senior capstone team designed,
fabricated, installed, tuned and tested a direct injection cylinder head
for a two-stroke snowmobile engine which doubled fuel efficiency and
reduced emissions 80-95 percent.
While Nick was the team captain in 2007, the team placed first overall
in the national SAE Clean Snowmobile Challenge and won many additional
awards.
The team was awarded the Most Sportsmanlike trophy after Nick stopped
the Idaho snowmobile in the middle of the Challenge to help a competitor
whose snowmobile was on fire.
Nick’s graduate research centers on engine design, development, and
calibration for ethanol-gasoline blended fuels. This work is focused on
improving emissions, efficiency, and power output. When not at school or
work, he enjoys modifying and riding motorcycles, snowmobiles, and other
motorized vehicles.
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Region X Student Conference
NIATT graduate students participated in the Sixth
Annual Region X Student Conference held at the
University of Washington on November 7, 2008. The
annual conference provides a forum for the graduate
students to share their research with each other as
well as make connections with each other and
representatives of the sponsors, transportation
professionals from the Northwest.
TRB Reception
NIATT, along with the UTCs from University of
Alaska, Fairbanks, Portland State University, and
the University of Washington, hosted a reception at
the 88th Annual Transportation Research Board
meeting in Washington, DC, in January 2009.
Representatives from the four UTCs were there to
talk to guests about the research being done in
their centers of excellence.
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A three-day program to help plan the future of
transportation engineering education is scheduled to
take place in Portland, Oregon, on June 22-24, 2009.
The conference is being sponsored by the Region X
UTCs along with the Institute of Transportation
Engineers and the Council of University
Transportation Centers.
Three goals have been set for the conference
attendees:
- Learning about the latest ideas in
transportation education engineering
education;
- Addressing important questions to help
improve the delivery of transportation
engineering education; and
- Learning how to improve teaching skills.
Registration is open at
www.webs2.uidaho.edu/transportation_education_conference-2009.
Plan to attend and/or to share your current work
and innovative ideas at a poster session.
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For the 21.2 million Americans who suffer from
vision loss, crossing the street can be a stressful
and potentially dangerous proposition. However,
thanks to NIATT researcher Richard Wall and his team
of graduate and undergraduate students, many
visually impaired individuals may soon have a
greatly reduced risk thanks to a tool already in
their pockets--their cell phone.
The statistics for vision loss, provided by the
American Foundation for the Blind, includes anyone
reporting difficulty seeing even while wearing
glasses or contact lenses. No matter the level of
visual impairment, many conditions including visual
noise, walking at night and irregular intersections
can result in missing the crosswalk. Regardless of
any condition, the new system being developed in
Moscow, Idaho will make intersections safer and
easier to navigate.
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“Minute for minute on the road, any
pedestrian is 150 percent more likely to
be injured by a car than somebody
driving one,” said Richard Wall,
professor of electrical and computer
engineering. “But it is pretty apparent
that the blind pedestrians are the ones
most at risk at intersections.”
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The new
technology utilizes features already available in
many cellular phones including communications,
Global Positioning Satellite (GPS) functions and
magnetic compasses to help visually impaired
pedestrians. Specialized software allows these
pedestrians to activate the crossing signal remotely
without having to locate the physical button.
Then,
the GPS system monitors the position and direction
of travel during crossing. As long as the crosser
stays within the crosswalk, nothing happens. But
stray outside the lines, and an audible warning
activates alerting the pedestrian of their danger,
and provides directions on how to get back within
the safety zone. Should the walker somehow end up in
the middle of the intersection, the system would
automatically turn every light red to stop traffic
and avert a potential disaster.
“It’s true that this
would disrupt the timing of the signal patterns when
it gets activated,” said Wall. “But we would much
rather disrupt them for a few seconds than for a
half hour while an ambulance assists a traffic
victim.” To ensure people don’t trigger the alarm
just for fun, only those who need the help would be
able to acquire the necessary software. The system
requires more than software, however.
It also requires the installation of new hardware in
thousands of lights across the country. Luckily, Wall
and his team have found a solution that is not only cost
effective, it simplifies the existing system. Many
crosswalks currently have handicapped-assisted signals
that provide help such as audio tones indicating when it
is safe to cross. However, the box that controls the
intersection contains a massive amount of wiring. This
is necessary to connect each actuator with each signal
so at any given time, the control box knows each state.
Wall’s new system simplifies each box to only two wires,
both required to power the signals.
The future is clear for Wall and his research
team. They have established dates to deliver the
engineering and expect field trials to commence in
June. They are building prototypes with their
commercial partner
Campbell Company, who currently
makes the accessible pedestrian signals that chirp
and talk for the handicapped. “The signals we’re
building are more than prototypes. These devices can
actually go into the field and work today,” said
Wall. “We’re using existing infrastructure and
communicating intelligence over it. It’s cost
effective, it simplifies the connection to two wires
and it can be immediately installed in all the
existing crosswalks in the country.”
Richard Wall (left) and Dustin Devoe, MS-ECE,
presented progress on the "Smart Signals" research
during a poster presentation at the 88th Annual TRB meeting in
Washington, DC. Funding for this work comes from the
University Transportation Centers Program and is
supplemented by a grant from Idaho's Higher Education
Research Committee.Return to
NIATT |
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