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Revising the economic imperative for US STEM education.

Brian M Donovan1, David Moreno Mateos2, Jonathan F Osborne1

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Economic growth linked to STEM education overlooks ecological impacts. Empowering students to protect ecosystems is crucial for long-term economic welfare and sustainability.

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Area of Science:

  • Ecology
  • Environmental Economics
  • Education Policy

Background:

  • Macroeconomic studies link student achievement in science and math tests to Gross Domestic Product (GDP) growth.
  • This supports the belief that Science, Technology, Engineering, and Math (STEM) education drives economic prosperity.
  • However, these studies often ignore the long-term economic consequences of ecological degradation.

Purpose of the Study:

  • To critique existing macroeconomic studies that use test scores to predict GDP growth.
  • To highlight the speculative nature of economic value estimates for STEM education when ecological impacts are ignored.
  • To propose a revised imperative for STEM education focused on ecological preservation and restoration.

Main Methods:

  • Critique of existing macroeconomic literature.
  • Analysis of the relationship between economic growth, ecosystem functionality, and biodiversity.
  • Conceptual framework linking STEM education to ecological impacts and economic welfare.

Main Results:

  • Estimates of future economic value from STEM education are speculative due to the omission of ecological impacts.
  • Economic growth, enabled by STEM advancements, can degrade ecosystems, ultimately limiting future economic potential.
  • STEM education's role extends beyond test scores to include ecological stewardship.

Conclusions:

  • The economic imperative for STEM education must incorporate ecological sustainability.
  • Empowering students to assess, preserve, and restore ecosystems is vital for reducing ecological degradation.
  • This approach can enhance long-term economic welfare by ensuring ecosystem functionality.