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Learning to Think Spatially: GIS as a Support System in the K-12 Curriculum (2006)
Board on Earth Sciences and Resources (BESR)

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. "1 Introduction." Learning to Think Spatially: GIS as a Support System in the K-12 Curriculum. Washington, DC: The National Academies Press, 2006.

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Learning To Think Spatially

BOX 1.3
Role of GIS in Spatial Thinking

A geographic information system mirrors many of the functions and operations of spatial thinking. A GIS can serve as one means of support for spatial thinking and as a model for exemplifying the challenges and ways of incorporating spatial thinking into K–12 education.

A GIS is an integrated system of hardware, software, and procedures designed to support the collection, management, manipulation, analysis, modeling, and display of spatially referenced data about Earth’s surface in order to solve complex planning and management problems.The power of a GIS is that it allows us to ask questions of data and to perform spatial operations on spatial databases.

A GIS can answer five generic questions:


Question

Type of Task

1.

What is at …?

Inventory and/or monitoring

2.

Where is …?

Inventory and/or monitoring

3.

What has changed since …?

Inventory and/or monitoring

4.

What spatial pattern exists …?

Spatial analysis

5.

What if …?

Modeling

SOURCE: Geography Education Standards Project, 1994, p. 256.

literate person as displaying three characteristics: knowledge of concepts, command over ways of thinking and acting, and development of capabilities. “Like literacy in reading, mathematics, science, or history, the goal of technological literacy is to provide people with the tools to participate intelligently and thoughtfully in the world around them” (NRCc, 2002, p. 3).

Given the resonances between this view of technological literacy and the committee’s view of spatial literacy, and given the shared emphasis on the importance of tools for thought, the committee offers a parallel characterization of spatial literacy as constituting proficiency in terms of spatial knowledge, spatial ways of thinking and acting, and spatial capabilities.

Spatial Knowledge

Students need to know the concepts that are the building blocks for spatial thinking. There are general spatial concepts that are found in many disciplines, such as symmetry, isomorphism, reflection, orientation, rotation, and function, and spatial concepts that are tailored to a particular discipline, such as relative versus absolute distance, small versus large scale, and distance decay in geography.

Students learn the meanings and uses of concepts relevant to spatial thinking in the context of specific disciplines or school subjects. Thus, in mathematics, students learn about general concepts, such as minima and maxima, and their specific forms, such as hyperbolas and parabolas. In geometry, they learn about conic sections: hyperbola, parabola, ellipse, and circle. They learn to distinguish among a torus, Mobius strip, and Klein bottle. In physics, they learn that the equilibrium position of a fixed chain is a catenary curve (or hyperbolic cosine).

Even this cursory listing of concepts by discipline illustrates two fundamental educational challenges. First, there is a rich, complex, conceptual structure to the description and explanation of space to be learned within each discipline. Second, rather than coming up with an omnibus list of concepts for spatial thinking, students—and especially teachers—should identify concepts relevant to specific disciplines but should also look for common themes. They should reflect on how

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