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Vocabulary
compositionstructurecirculationdeep oceansthermohaline circulationdataenergy flowocean basin structurepolar ice capsglaciers
Skills
  • model (changes to the composition, structure, and circulation of deep oceans) #dok2
  • explain (how changes affect thermohaline circulation) #dok2
  • analyze (data on energy flow, ocean basin structure, and changes in polar ice caps and glaciers) #dok3
  • interpret (the effects of changes in ocean composition and structure on thermohaline circulation) #dok3
Learning Targets
  • I can describe the composition and structure of deep oceans. #dok1
  • I can identify changes to the composition, structure, and circulation of deep oceans. #dok1
  • I can model changes to the composition, structure, and circulation of deep oceans. #dok2
  • I can explain how changes in deep ocean properties affect thermohaline circulation. #dok2
  • I can analyze data on energy flow, ocean basin structure, and changes in polar ice caps and glaciers. #dok3
  • I can interpret evidence to predict how alterations in deep ocean properties influence thermohaline circulation. #dok3
Big Ideas
  • The composition, structure, and circulation of deep oceans play a critical role in global thermohaline circulation and climate regulation.
  • Changes in energy flow, ocean basin structure, and polar conditions can significantly alter the behavior of the deep ocean, affecting the movement and periodicity of ocean currents.
Essential Questions
  • How do the composition and structure of deep oceans influence thermohaline circulation?
  • In what ways can data on energy flow, ocean basin structure, and polar ice changes be used to model ocean circulation?
  • What happens to global thermohaline circulation when the properties of deep oceans are altered?
  • How might changes in polar ice caps and glaciers impact ocean currents and global climate?
  • Why is understanding deep ocean circulation important for predicting climate change?