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| Students present their plans for a surveillance
system that will accurately depict drug use in the United States. |
Forty-nine students and 10 teachers from area high schools have been
participating in an innovative educational program at Montclair State
since last semester. They are attending an undergraduate course called
"The Science of Public Health: Epidemiology." The class consists
of student/teacher teams from six high schools from four school districts
that are members of the New Jersey Network for Educational Renewal (NJNER).
Participating schools include Eastside High School, Rosa Parks High School,
and the Health and Related-Professions Academy (HARP) in Paterson, and
the high schools in Cedar Grove, Kearny and Montclair. Each team consists
of a science, mathematics or health teacher, and five students selected
by the teacher.
The class is the result of the formation of an Epidemiology Education
Partnership (EEP), through the cooperation and support of NJNER, MSU,
a Science Education Partnership Award from the National Center for Research
Resources at the National Institutes of Health, and a Science Education
Drug Abuse Partnership Award from the National Institute on Drug Abuse
(NIDA).
Taught by Mark Kaelin and Wendy Huebner of the College of Education and
Human Services, the goal of the class is to introduce high school students
and their teachers to the science of epidemiology, the study of the distribution
of disease and determinants and the control of health problems. A second
goal is to pilot-test portions of a NIDA-supported curriculum, "Exploring
Drug Abuse through the Science of Epidemiology," which is designed
to explore drug abuse issues that are relevant to high school students,
while simultaneously developing their understanding of the science of
epidemiology.
"Usually, epidemiology courses are taught at graduate schools of
public health," explained Kaelin, "but the Center for Disease
Control is advocating for the teaching of epidemiology in grades K-12."
The class content is centered around five major areas related to the
science of epidemiology: describing distributions of disease in populations
and generating hypotheses (descriptive epidemiology); performing studies
to determine factors that are associated with disease (analytic epidemiology);
determining causality; understanding the balance between science and society
in developing prevention strategies; and using epidemiological methods
to evaluate the effectiveness of prevention strategies. Throughout the
course students have a variety of experiences to illustrate and practice
epidemiology methods--those of general interest and those that apply to
the epidemiology of drug abuse. "There's a sleuthing aspect, which
is neat in the classroom," said Kaelin. "The content is relevant
and the detective work gets students' attention. It doesn't hurt to have
these 'CSI' shows on television."
In the first several classes, students learned about descriptive epidemiology
and the three important factors that epidemiologists consider when investigating
the distribution of a disease: person, place and time. In a theoretical
exercise, students hypothesized why certain students were designated as
sick and others remained healthy, and in another class, students looked
at descriptive epidemiological data and tried to figure out what event
would have produced such data. Students also have learned about surveillance
systems for detecting and monitoring disease and, specifically, how HIV/AIDS
surveillance is conducted and what has been learned from this surveillance.
To further their understanding of surveillance systems, students worked
in groups devising ways of creating an accurate data description of drug
use in the United States. Students then compared their suggestions to
methods used in the National Survey on Drug Use and Health.
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| Students look at descriptive epidemiological
clues and formulate hypotheses to explain the distribution of disease. |
"This course is interdisciplinary and brings relevance and excitement
to the classroom. It develops students' analytical skills through deductive
reasoning and problem solving," said Kaelin."The goal is to
improve their scientific literacy. To get them to a point where they are
able to read articles about science and not only understand what has been
written, but for their antennae to go up and realize what may not have
been included in the article."
At the end of the course, students are required to teach 5-10 "Detectives
in the Classroom" epidemiology lessons to middle school students
in their community, supervised by their participating teachers. "The
best way for students to learn something is for them to teach it to others,"
said Kaelin. In addition, participating teachers have agreed to teach
5-10 epidemiological lessons in their regular high school classes during
the 2005-2006 academic year.
"It is exciting to have these students and teachers with us in our
university setting. We are delighted with the enthusiasm we see in the
classroom," said Kaelin. "These are teachers who want to do
better, even if they're already the best at what they do. It's wonderful
to see the students' eyes light up, for them to 'get' a concept and realize
how useful it is to them."
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