MATH & SCIENCE CONNECTIONS TO MEDIA
LITERACY
Even though few state teaching standards for math or
science mention media,
it is clear that math/science teachers use media in their classrooms and that
much of the information we receive about math and science come from the media.
It makes much sense to include "media literacy" in both science and math
instruction.
What follows are several articles/essays/research items related to the topic.
For educators: you may wish to familiarize yourself with both the
main concepts
of media literacy as well as the common critical
thinking/viewing questions.
Questions/comments? Email me:
fbaker1346@aol.com
Eliciting Students' Beliefs about Who Is Good at Mathematics
(Mathematics Teacher, Aug 2007)
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Highly recommended |
Developing Scientific Literacy:
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Turning scientists into screenwriters
IBM
supports the deep science of video gaming
Prime Time
Science
Science would be nowhere without its image(s)
Balance as bias: Global warming and the US Prestige
Forget Star Chemistry. How About the Film's?
This summer, the Web site version of the weekly Chemical and Engineering
News
(http://pubs.acs.org/cen/reelscience/)
started publishing movie reviews that focus
(although not exclusively) on the accuracy of the science, especially the
chemistry,
in the latest releases.
Science Fictions- understanding news stories which report on drug study
results
The pleasure of moving making: reflections on integrating video production
technologies
into the teacher education curriculum (Spring 2003)
How first year college students read Popular Science: An Experiment in teaching
media literacy skills, SIMILE, May 2002
Sci Fi Channel's Battlestar Gallactica
Lesson Plan on War Propaganda
Media
Literacy In The Science Classroom
Approaches to Media Literacy In Science Education
The
March 2002 issue of Science Scope
(publication of the National Science Teachers Association)
is dedicated to "Media In The Science Classroom," and includes articles like
Countering Gender Bias In the Media; Star Trek Physics- Where Does the Science
End and the Fiction Begin?; Science Fiction and Science Education;
Lights, Camera and the Action of Science, among many others.
Shutters, Sprockets and Tubes: How Moving Image Machines Work
Professor Aims to Teach Science With Comics
Using
Comics to Teach Physics
Science Fictions: The Media's Role in Our Perceptions of Scientists
See also
Math In
The Media (original activities and lesson plans about
common news stories that use numbers)
Math & Media: Bias Busters (from the book Rethinking Schools Special
edition)
"Media exposure and knowledge about science" (ED 399 563)
Use the News: A study of Secondary teachers' use of newspapers in the science
classroom
ENC FOCUS, Volume 8, No. 3 (late Summer 2001) "Becoming Literate in Mathematics
and Science"
As teachers relate the significance of math and
science learning to students' everyday lives, the role of the
popular media adds another dimension to the discussion.
by Frank Baker, South Carolina ETV, Columbia, South Carolina
| At the end of this article, see: |
In 1992, a group of media educators gathered to discuss the state of media education. One of the results of their meeting was this definition of media literacy: "....the ability to access, analyze, interpret, and communicate media in a variety of forms...." (Aspen Institute Conference on Media Literacy).
Media literacy education now appears in the curriculum frameworks or standards of 48 states (Kubey & Baker, 1997). Media education fits quite well into the English/language arts curriculum, as well as social studies and health. But it is also applicable to mathematics and science. Media literacy is about inquiry: asking questions about the news and entertainment media, their makers and their messages. Media literacy is more than analyzing advertising, critical television viewing skills, or making videos with a camcorder. It is a lifelong skill designed to make students wise consumers, critical thinkers, and decision makers.
The Center for Media Literacy (a Los Angeles-based clearinghouse of media education materials) offers these five characteristics of messages delivered to the public via the media:
The 1998 movie Contact starred actress Jody Foster as the scientist responsible for deciphering the first extraterrestrial message sent to Earth. The movie was generally applauded by scientists for its authenticity. But, it is rare for Hollywood to accurately portray a female scientist. Stereotypes and misconceptions are frequently generated by television and movie producers.
Classroom teachers can take advantage of students' interest in popular movies to help them analyze the misconceptions. For example, both Deep Impact and Armageddon posed the question: What would happen if Earth were in danger of being hit by an asteroid or a large comet? Even though scientists tell us the chances of such a collision are small, these movies offer teachers an opportunity to explore how science is portrayed in these and other movies.
Every teacher who uses a video, a CD ROM, or the Internet as part of his or her instruction should ask questions such as this: How does the selection of images by the producer shape our understanding of science concepts?
Even the wealth of science programming by well-known documentary-makers should not be exempt from some inquiry on the part of teachers and students. Rather, the same questions that apply to commercial movies should also be asked of documentaries: who is the producer; what are his or her motives; what techniques does the filmmaker use to convey his message?
Len Masterman, considered one of the world's leading media educators, writes about curriculum connections in his book Teaching the Media (1985). He offers these ideas to consider when viewing or reading popular media messages about science and scientists:
Math and number literacy are parts of our everyday media exposure: the weatherman tells us there is a 30 percent chance for rain; the morning newspaper reports the stock market numbers; ESPN gives us statistics on sports.
Taking a close look at numbers in the news is a great way to get students to think about and question the source of statistics-and how statistics can be misrepresented. For example, each week, Nielsen Media Research issues its list of the top 100 television shows, based on the shows' ratings and shares. Do students know what rating and share really mean? How are these numbers generated? How are these numbers used by advertisers? Are the numbers accurate?
The advertising industry has been using numbers and statistics for decades. Many of us can remember when one brand of toothpaste made the claim that it was recommended by three out of four dentists. (What about the thousands of other dentists not surveyed?) A car commercial claimed the manufacturer's newest model gave a 30 percent smoother ride than last year's car. (How was smoothness measured?) Teachers can ask students to survey newspapers, magazines, and the Internet for ads that make seemingly outrageous or unsubstantiated claims.
Newspapers and magazines often use bar or pie graphs to visually display information. These graphical displays offer students another opportunity to analyze how data is portrayed and how accurate or misleading it may be.
Because so many students get their information from the media (television, radio, Internet) it is critical that teachers integrate media literacy into their instruction. Some of the sources listed in the sidebar are good starting points for teachers who want to learn more.
Kubey, R., & Baker, F. (1997, October 27). Has Media Literacy Found A Curricular Foothold? Education Week, 56.
Masterman, L. (1985). Teaching the Media. New York: Routledge.
Thoman, E. (Accessed 2001). Skills and Strategies for Media Education. www.medialit.org
Frank Baker is a member of the Founding Board of the Alliance for a Media Literate America (formerly the Partnership for Media Education). He chaired the 1999 National Media Education Conference. Baker works for South Carolina ETV in Columbia, South Carolina.
Media Literacy Education Resources |
|---|
| These web sites provide information and a
broad range of resources about media literacy. Alliance for a Media Literate
America, formerly the Partnership for Media Education, is a membership group
committed to promoting media literacy education. It stages an annual
national conference on media education. Its stated mission is to mobilize
teachers, parents, social service agencies, public health leaders, and
others to support media literacy education. (www.AMediaLitAmerica.org) Assignment: Media Literacy is a web site that provides K-12 curriculum materials. The site is designed in alignment with state curriculum frameworks in an effort to embed media literacy skills into such subjects as language arts, social studies, health education, and the arts. Samples of student work and teacher dialogues are available. (www.assignmentmedialit.com) The Center for Media Literacy is a not-for-profit, membership organization located in Los Angeles, California. The center develops and distributes materials to schools and sponsors workshops and conferences. Founder and president of the center is Elizabeth Thoman, a former high school journalism teacher and publisher of a magazine about the media. The center offers a print and an online catalog of resources for teachers. (www.medialit.org/CML) The Media Literacy Clearinghouse is a web site of background articles and lesson plans. It is funded by the state of South Carolina for the purpose of studying media literacy skills and health-related risks among young adolescents. (http://www.frankwbaker.com) Media Literacy Online Project is housed in the College of Education at the University of Oregon in Eugene. On its web site are links to lesson plans, readings, indexes, and materials for parents. (interact.uoregon.edu/medialit/homepage) PBS TeacherSource Web Site on Media Literacy gives classroom activities for language arts, social studies, math, science, and health. (www.pbs.org/teachersource/media_li/getting_started.shtm) |
| Baker, Frank. July 2001. Media Literacy: Yes, It Fits in Math and Science Classrooms. ENC Focus 8(3) p.48-49. |