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NEWS
INDEX
Archives
2004
August
Science more creative
and less 'true' than many believe, educator says
Craig
Chamberlain, Education Editor
217-333-2894; cdchambe@uiuc.edu
8/2/04
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| Photo
by Bill Wiegand |
| Science
is more creative and less 'true' than many believe, says
education professor Fouad Abd-El-Khalick. |
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CHAMPAIGN,
Ill. — Science is not just evidence, but intuition. It is not
just procedures, but creativity. Its conclusions are not set in stone,
but ever-changing and open to question as part of a dynamic social enterprise.
Yet the predominant view in schools and among the general public is
that science is completely rational, objective, procedural, authoritative
and free of cultural influence – a prescribed and trusted means
for finding “the truth,” says Fouad Abd-El-Khalick (FOO-ahd
OBD-ell HOLL-ick), an education
professor at the University of Illinois at Urbana-Champaign.
It’s a view of science that often warps science-related public
policy discussions; probably discourages many talented and creative
students, especially girls, from the study of science, and causes many
to distrust science completely when research claims conflict, Abd-El-Khalick
said. For those reasons and others, it is a view that he and other science
education reformers are working to change.
“We need an approach to teaching science that is more authentic
to (the) nature of science, to what science really is,” he said.
(Abd-El-Khalick avoids using “the” in front of the phrase
because the exact nature of science is something that continues to be
debated.)
To illustrate his point, he noted the ever-changing nature of health
claims. “How many times have we heard that eggs are good for you
in one decade, and the next decade, eggs are not good for you, and back
again?” Abd-El-Khalick said. Many react by asking, “If science
is the truth, how come the scientists are changing on us?” They
grow to distrust science itself, or think the scientists don’t
know what they’re doing.
But that reaction is a consequence of a “culture of school science”
in the United States and elsewhere that says science, properly practiced,
will produce certainties.
Yet “the examples are countless whereby scientific claims tend
to change,” he said.
Students and their teachers need to view science with more “tolerance
for ambiguity,” Abd-El-Khalick said. They need to develop an attitude
of “committed relativism.” That attitude, he said, accepts
that “we do not know the truth, but at the same time, not everything
goes. We can say we know certain things with certain reliability, but
we do not say that these things will not change in the future.”
The objective, authoritative view of the nature of science disfavors
girls, Abd-El-Khalick said, because girls’ learning styles tend
to favor subjectivity, creativity, and collective endeavor, which allow
them to feel empowered as participants in the process of creating knowledge.
Scientific ideas taught in a competitive atmosphere and as the authoritative
truth, only to be accepted, do not provide that sense of empowerment,
he said.
“Advancing more authentic views of (the) nature of science as
a historical, creative, passionate, and social endeavor aimed primarily
at understanding and problem-solving … will help create classroom
environments that are likely to encourage more girls to pursue science,”
he said.
Changing the views of students and teachers about the nature of science
is a key theme in two key science education reform documents, “Science
for All Americans,” published by the American Association for
the Advancement of Science (AAAS), and the “National Science Education
Standards,” published by the National Research Council.
Abd-El-Khalick has spent more than eight years studying how and when
students’ views about the nature of science are formed, and how
they might be influenced to change. His research has involved students
and teachers from elementary school through college, as well as pre-service
teachers.
“One of the most interesting things we’ve found is that
students’ and teachers’ views are not necessarily coherent.
They’re actually fragmented, they’re fluid, they’re
changing,” he said.
His research and that of others strongly suggests that just doing science
will not significantly sway students’ views about the nature of
science, he said, though many teachers and researchers continue to believe
otherwise.
Courses on the history of science have been touted as a means for teaching
students about the nature of science, but Abd-El-Khalick has found that
they also have little influence on their own.
He argues that courses must incorporate activities that encourage students
to reflect on what specific observations, experiments or historical
episodes have to teach about the nature of science. He has written a
number of those activities himself.
His more recent research is looking at children’s conceptions
of how we learn about the natural world, and how those conceptions change
through the elementary, middle and high school years. A principal aim
of this research into students’ epistemological development –
rarely done with other than college students and adults – is to
learn when students begin moving away from right-and-wrong, black-and-white
views of the world and knowledge. The point when that happens might
be the point when students are more open to an authentic view about
the nature of science.
The results are still preliminary, Abd-El-Khalick said, “but some
really interesting things are coming out that show some changes might
be happening in high school that we probably did not think were happening
at that level.”
Promoting a more-authentic view about the nature of science in our science-based
culture is no small concern, Abd-El-Khalick said. “Our view of
(the) nature of science has very significant implications for the way
we teach science in schools, the way we talk about science in culture,
the way we draw on science to make informed decisions about personal
and societal science-related issues.”
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