In this activity, students will differentiate between requirements for life in extreme environments such as hydrothermal vents and other environments and will use soft candy as a model to create a visual image of chemicals involved in autotrophic nutrition. As they review the biochemistry of hydrothermal vents, they will discover what chemicals are used by autotrophs in extreme environments in the deep ocean and how these chemicals differ from those used by terrestrial autotrophs. They will also study a diagram showing how a hydrothermal vent (black smoker) acquires the elements and compounds that deep-sea autotrophs require. Educational levels: High school
Chemiosmotic coupling is universal: practically all cells harness electrochemical proton gradients a...
This article describes an inquiry activity that promotes an accurate and deep understanding of key c...
There are two dominant and contrasting classes of origin of life scenarios: those predicting that li...
In this activity, students will discover the importance of carbon, where carbon is stored on Earth, ...
In this activity, centered on the ecology of a cold-seep community, students will investigate how de...
In this activity, students will investigate the occurrence of gas hydrates on the ocean floor. They ...
This bioluminescence activity will help students to understand how animals produce and use light in ...
This lesson provides students with an introduction to the process of life learning about photosynthe...
Climate science has been a hallmark discipline at Scripps Institution of Oceanography (SIO) and othe...
In this lesson, students discover how deep-water corals can be used to determine long-term patterns ...
Climate science has been a hallmark discipline at Scripps Institution of Oceanography (SIO) and othe...
Author Posting. © The Oceanography Society, 2012. This article is posted here by permission of The ...
In this lesson, students will investigate absorption, reflection, and scattering of light in the dee...
Chemiosmotic coupling is universal: practically all cells harness electrochemical proton gradients a...
This article describes an inquiry activity that promotes an accurate and deep understanding of key c...
Chemiosmotic coupling is universal: practically all cells harness electrochemical proton gradients a...
This article describes an inquiry activity that promotes an accurate and deep understanding of key c...
There are two dominant and contrasting classes of origin of life scenarios: those predicting that li...
In this activity, students will discover the importance of carbon, where carbon is stored on Earth, ...
In this activity, centered on the ecology of a cold-seep community, students will investigate how de...
In this activity, students will investigate the occurrence of gas hydrates on the ocean floor. They ...
This bioluminescence activity will help students to understand how animals produce and use light in ...
This lesson provides students with an introduction to the process of life learning about photosynthe...
Climate science has been a hallmark discipline at Scripps Institution of Oceanography (SIO) and othe...
In this lesson, students discover how deep-water corals can be used to determine long-term patterns ...
Climate science has been a hallmark discipline at Scripps Institution of Oceanography (SIO) and othe...
Author Posting. © The Oceanography Society, 2012. This article is posted here by permission of The ...
In this lesson, students will investigate absorption, reflection, and scattering of light in the dee...
Chemiosmotic coupling is universal: practically all cells harness electrochemical proton gradients a...
This article describes an inquiry activity that promotes an accurate and deep understanding of key c...
Chemiosmotic coupling is universal: practically all cells harness electrochemical proton gradients a...
This article describes an inquiry activity that promotes an accurate and deep understanding of key c...
There are two dominant and contrasting classes of origin of life scenarios: those predicting that li...