
The unit examines the impact of technology on the space program, in the past, and at present. Students also have an opportunity to speculate on the direction that space exploration could (or should) take in the future. Due to the nature of the material in this unit, fewer opportunities exist for hands-on activities. However, the unit provides many opportunities to develop Independent Learning, in conjunction with a Resource-Based Learning approach to researching and investigating space exploration.
The optional unit, earth's climate, can also be integrated with this unit. Climatic patterns on earth can be studied by analyzing information which has been sent back to earth from weather satellites. These satellites provide us with information that would have been difficult, if not impossible, to obtain otherwise. Once consideration is given to climate, then the related life science units on Ecosystems and Plant and Animal Adaptations can be brought in as well.
Science writing and reading activities, as discussed in this Guide, should be incorporated into each lesson. Writing science fiction stories based on science fact, reading articles from newspapers or magazines, and summarizing what they have read in the form of a chart are only two strategies through which students may refine their understanding of the concepts of science and develop their ability to communicate through the written word.
Science challenge, as described in this Guide, is meant to extend students' critical and creative thinking abilities in the context of the science concepts being studied. Activities involving science challenge should be incorporated into science lessons in each unit. The challenge is intended to give each student a chance to investigate an area of interest in more depth than would be possible for all students in a class to do. Science challenge is a key strategy for bringing the Adaptive Dimension to the classroom, and for encouraging independent learning.
the Earth and other planets
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Note: Many of the resources listed in Science: An Information Bulletin for the Middle Level - Key Resource Correlations describe activities or ideas for activities.
Ask students to extend this activity by designing their own space plaque to be placed inthe next deep space mission. Have them explain what they put on their plaques, and why they felt that information was important.
Another extension of this activity would be to create a time capsule which contains important information about the school, the community, and the culture. Arrange to have the time capsule placed in the cornerstone of a new building being erected in the community, with an inscription commemorating the project which will enable people at some later time to learn about their past.
If you found such a time capsule from the past, what would the artifacts and the information reveal about the people who made it? Perhaps the class could be presented with such a hypothetical time capsule, allowing them to explore their time capsule project from several different perspectives. How would time capsules from different parts of the province differ? How would they be the same? How would time capsules from different cultures compare?
Factors: A1, A2, C2, C4, D1, D3, E4, G1, G5
Objectives: 2.2, 2.5, 2.6, 4.1, 4.4
Assessment Techniques: group evaluations, written assignments, extended open response test items
Instructional Method: reflective discussion
Factors: A1, A2, C2, C4, D1, D3, G1, G5
Objectives: 1.6, 1.7, 2.1, 2.2, 2.3,
3.2, 3.3
Assessment Techniques: portfolios, self- and peer-assessments,
presentations
Instructional Methods: research, reports
Pioneer, Mariner, and Venera were several other space probe projects.
Have students investigate these projects to determine how our knowledge
of the solar system was increased. What are some of the advantages and disadvantages
of using probes with remote sensing equipment rather than using space vehicles
with humans on them? How have these space probes been of benefit to society?
Has society been at risk from the development of this technology?
Design a future space probe. What characteristics does it have? Why are
these characteristics important?
Factors: A1, A2, B1, B15, C2, C4, D1, D3, E4, G1
Objectives: 1.6, 1.7, 2.1, 2.5, 2.6,
3.1, 3.3, 4.3
Assessment Techniques: written assignments, oral assessment, presentations
Instructional Methods: model building, discussion
How successful was the Biosphere-2 project in Arizona? What aspects of
its design would be useful for an orbiting space station? Which aspects
would be impracticial for an orbiting station but useful or essential for
a station built on the surface of another planet or a moon?
Another good research project involves investigating life in a zero gravity
environment. What problems might be encountered trying to eat, sleep, or
exercise in that situation?
Students could also examine the features of a space suit to see how the
suit has been designed for the conditions in space.
Have students bring some Earth toys to class. They should experiment with
each one, becoming familiar with how they behave in response to gravity.
Have the students predict how the toys would behave in microgravity. They
can illustrate, record, or attempt to simulate any unusual characteristics
that they anticipate.
If it is available, view either Toys in Space, showing the Space
Shuttle crew investigating the toys they brought along, or Microgravity,
which illustrates how microgravity has its own peculiar characteristics.
Some of these characteristics are useful for scientific or industrial processes
which can not be done easily on Earth. Consider the predictions made earlier.
Compare those predictions to what actually occurs in the Toys in Space video.
View a motion picture or a television program that was made several decades
ago. Find any inaccuracies and stereotypes about space travel. The dialogue,
costumes, and hair styles are interesting to consider to see if there are
any trends or cultural assumptions depicted which are no longer popular.
It may be interesting to look specifically for highly propagandized narratives.
The Buck Rogers series and The Day the Earth Stood Still are
examples of science fiction classics. There are dozens of such classics
available. Ask your resource centre staff to gather science fiction books
suitable for grade 6. If a teacher-librarian is available, ask that some
book talks be scheduled.
Students may have more difficulty analyzing a modern science fiction production.
Often it is difficult to appraise cultural assumptions and stereotypes unless
they can be isolated in a different time or a different place. Nevertheless,
have students examine a more recent production. (As an example, the sound
effects in the space combat in Star Wars mimic the sound of jet fighters
in the atmosphere. Sound does not travel in a vacuum.) An interesting comparison
might be to consider how the Star Trek: The Next Generation series
differs from the original Star Trek series.
As either a follow-up activity or an alternative activity, depending on
one's preference, analyze some science fiction writing. A novel by Jules
Verne might be compared to a more recent one by an author such as Isaac
Asimov, Arthur Clarke, Robert Heinlein, or Orsen Welles. Look as well for
differences in writing style and language usage based upon the time in which
the material was written.
Integrate the activity with Arts Education and English Language Arts.
Have students research this or other experiments that are particularly
suited for a microgravity environment.
Students could also design their own experiments to be performed in space.
How can the conditions that are found in space be an advantage in performing
those experiments?
Have some students research disasters that have occurred in space. Others
can be assigned to research tragedies that have occurred for other types
of technology. Examples to consider might be the sinking of the Titanic,
the explosion of the dirigible Hindenburg, the Tenerife jumbo jet collision,
the Bhopal chemical plant disaster, the Chernobyl nuclear disaster.
Compare similarities and differences in each of these disasters. Identify
those factors that can be attributed to "human error." What changes took
place after the disaster? Were safety regulations improved? Were changes
made to the technology to ensure that such a disaster would never occur
again?
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