Jonathan is very excited. His fifth-grade class is visiting the Martinez
Decorative Tile Company where his mother works. Near the end of the tour, Mr.
Martinez challenges the students to create a design for a tiled wall the company
has been asked to complete. If he can use the design, he will treat the class to
a pizza party. Now it's Jonathan's teacher who is excited. What a perfect
opportunity to introduce tessellations to the class.
Taking students on field trips or using other community resources in their
classes is not a new idea for teachers. Often, however, these experiences are
thought to be frills or rewards that compete with instructional time in the
classroom. Curriculum reform in science and mathematics calls for a new look at
using community resources. The national standards in science and mathematics
suggest that good programs require access to the world beyond the classroom so
that students will see the relevance and usefulness of science and mathematics
both in and out of school. Changing the educational experiences of children by
moving beyond the classroom walls can diversify the array of learning
opportunities and connect school lessons with daily life and real problems.
Away from the structure of the classroom, many characteristics of constructivism, a
key idea in the current reforms, clearly emerge. For example, imagine the
interactions that occur as a small group of students experiments with an
interactive museum exhibit. They talk about what they see and what they know,
relating what they are doing in the museum to what they have learned in and out
of class. They experience, create, and solve problems together. Social discourse
and direct experience help them construct an understanding of the phenomenon. The
exhibit puts constructivism in action.
Teachers always face the task of pulling together the diverse understandings their students bring to the classroom. The
use of community resources provides a shared memory for the class. For example,
going on a field trip is only part of the total experience. As students and
teachers talk about the trip and think about it after it is over, they are
building shared understanding. The event becomes part of the common knowledge of
the class and can be referred to in subsequent lessons. What was learned is,
thus, reinforced and extended in later discussions as the teacher refers to field
observations.
Teachers can effectively develop interdisciplinary units with their
students outside of the classroom. The world is not made up of discrete
disciplines. Students working on a city street, for example, could be doing
social studies (e.g., making a survey of how a building is used today and how it
has been used over the years), language arts (e.g., writing a short story about
the building), mathematics (e.g., devising ways to measure the height of the
building), and science (e.g., observing the materials used in the building for
signs of weathering). Subject matter barriers dissolve as children learn from
their environment.
Community resources that can enhance mathematics and science
learning include science centers to visit (museums, nature centers, interactive
science centers, aquaria, gardens and zoos), places to explore that are unique to
the local school (a nearby creek, pond, city street or business), people in the
community, or materials that can be borrowed or purchased. SCIMAST's Directory of Science-Rich
Resources (called the Directory in the remainder of this article) can be
used by teachers as a guide to science centers, sources of curriculum materials,
and other kinds of science-rich resources in the region.
Hector, Angela, and Melissa are around a resonant pendulum at the science
museum. At this exhibit, they can affect the swing of the heavy pendulum by
attaching weak magnets and pulling on the attached cords. Angela tries it and
they notice that the swing of the pendulum gets larger when she pulls on the
cord. Melissa tries it but her magnet falls off as soon as she pulls the cord.
Together, they try to figure out what happened.
Science Centers. A learning activity must have a purpose or
reason so field trips should be thought of as part of the curriculum. As such,
they should provide something to think about as well as something to do or some
place to go. If possible, the teacher will want to visit the science center
before the field trip to help her balance the needs of the teaching unit with the
resources of the site. She can then focus on those exhibits that demonstrate the
concepts she is teaching and match the students' cognitive levels. Learning
activities are prepared for use before, during, and after the field trip and
include student orientation material, such as a map, a list of exhibits to be
visited (although they could visit others), and the educational objectives of the
trip.
This focused approach will advance student learning more effectively than
an unfocused scavenger hunt or a generic worksheet written without the benefit of
the teacher's preparatory visit. The Directory offers numerous examples of
informal places that link to curricula. The Louisiana Children's Museum (New
Orleans, Louisiana), for example, has an air hockey table adapted for
experimentation with angular geometry, and the Texas State Aquarium (Corpus
Christi, Texas) has a laboratory facility that demonstrates the physics of
buoyancy and fluids.
Children generally find interactive exhibits engaging. These
exhibits can be appealing and effective tools for teaching science and
mathematics and for generating a positive attitude toward learning these
subjects. At the Harmon Science Center (Tulsa, Oklahoma), students walk, climb
and slide through the Underground Tulsa exhibit. At the Santa Fe Children's
Museum (New Mexico), children use homing pigeons to send messages from an outside
site to the museum.
Outreach. Many students do
not live near a zoo, nature center, or museum for a field trip to be practical, but numerous sites listed in the Directory offer outreach programs. A visit to your classroom by Wildlife on Wheels (Ellen Trout Zoo, Lufkin, Texas) or Creature Comforts (Little Rock Zoological Gardens, Little Rock, Arkansas) can be an engaging learning event for students.
Their class at City School is making a vegetation map of the city block.
Shawna, Antoine, and Jennifer are recording the trees and shrubs in front of the
school building and measuring their diameters when Antoine notices that little
plants are growing out of the sidewalk cracks. They wonder if their map should
include small plants as well as large ones and go to check with the group working
around the corner.
Near the School. The lack of a nearby science center need not
be a limitation. Community resources include unconventional sites, such as the
tile factory or a hardware store, fabric store, farm, or ranch. While extended
field trips can be rewarding, short school yard trips can be equally valuable.
These allow children to discover answers for themselves in a familiar context.
Whether your school is urban, suburban, or rural, it reflects the habitat of its
neighborhood-the hard-topped surfaces, the soils, grasses, and trees, the
weather, and so on. The young inquirer can easily return to the school yard for
further data gathering if a question is left unanswered or new questions arise. A
class studying the sun and its shadows in a particular location, for example, can
gather data at intervals throughout the day.
Materials through the Mail. By necessity, most learning
activities occur in the classroom. Organizations listed in the Directory can provide materials that enrich the curriculum and provide unique experiences for children. These inexpensive or free materials may be overlooked since they are not produced by educational publishing companies. Diaries in the Dirt, a program available from the Oklahoma Archaeological Survey, includes a set of artifacts for sand box explorations. Techniques, Technology, and Trade, a curriculum available from the Arkansas Ag in the Classroom State Leader, integrates science and economics. Numerous national organizations have also developed curriculum materials; guidance materials from professional organizations are useful ties to the workplace.
Electronic Connections. Many entries in the Directory have
activities and programs that involve the Internet or e-mail communication and can
be valuable additions for classes that have Internet access. Marsville, a project
sponsored by Phillips Laboratory (Albuquerque, New Mexico), is a simulation for
elementary classes. Students create prototypes of a colony on Mars and
communicate by e-mail with other participating schools about colony operations.
In the GLOBE Program, students take environmental measurements and post their
data on the Internet. WeatherNet, listed under National Weather Service in the
Directory, is an Internet resource that includes weather data and links to the
home pages of more than 300 weather-related organizations.
Sharon likes mathematics, but she did not even know what a civil engineer did
until Ms. Davies and Mr. Garcia came to her class. Now she thinks she would like
to be one. The activity they did with the class about bridges intrigued her.
After the class, she asks Ms. Davies about her bridge activity and then asks
about colleges and jobs for girls in this field.
Guests. Guest speakers from the community can provide new
information and experiences to students and link the school to the world outside.
The teacher should spend time with the guest before the visit so they can discuss
the age level of students and kinds of activities and information appropriate for
this age group; the needs of the guest during the visit and his or her general
comfort level with children; the topic of the presentation and the students'
general knowledge about this topic; and what the teacher can do before to make
the visit a success. Staff of state agencies can serve as classroom partners or
as knowledgeable resource people.
For example, staff from a conservation agency
might be able to aid schools in setting up an outdoor classroom or civil
engineers from the highway department may be able to show plans for a bridge
project. Many potential speakers are overlooked, however, because they work in
less technical fields. Valuable links to the community as well as connections
between school subjects and the workplace may be created by inviting a cafeteria
worker who could talk about using proportions in increasing the size of recipes.
A mechanic or the owner of a feed store are other possibilities. Guests who can
come back to the classroom numerous times may enhance the learning experience for
the students.
The richness of the region's resources is apparent from the number and diversity of entries found in the Directory of Science-Rich Resources. Imagination and creativity in using community resources can help students
connect school science and mathematics with applications in the community, as well as helping students better learn basic concepts. Children learn science and mathematics from many sources, in a range of different ways, and for a variety of purposes. Taking students to a science museum or out onto the school grounds, exposing them to innovative materials, or inviting guests
who can give unique insights are a few ways to increase their learning experiences.
Knapp, C. E. (1996). Just beyond the classroom: Community adventures for interdisciplinary learning. (ED 388485) Available from ERIC Clearinghouse on Rural Education and Small Schools, P. O. Box 1348, Charleston, WV 25325-1348 ($12 includes shipping and handling).
Maarschalk, J. (1988). Scientific literacy and informal science teaching. Journal of Research in Science Teaching, 25, 135-146.
National Council of Teachers of Mathematics (1989). Curriculum
and evaluation standards for school mathematics. Reston, VA: Author.
National Research Council (1996). National science education standards. Washington, D.C.: National Academy Press.
Rennie, L. J., & McClafferty, T. (1995). Using visits to interactive science and technology centers, museums, aquaria, and zoos to promote learning in science. Journal of Science Teacher Education, 6, 175-185.
Semper, R. J. (1990, November). Science museums as environments for learning. Physics Today, 2-8.