Ecosystems Unit Activity 2.4 Organic Carbon Pools in Other Ecosystems

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Ecosystems Unit Activity 2.4 Organic Carbon Pools in Other Ecosystems Carbon: Transformations in Matter and Energy Environmental Literacy Project Michigan State University Ecosystems Unit Activity 2.4 Organic Carbon Pools in Other Ecosystems Discuss carbon pool sizes in different ecosystems. Use 2.4 Pools in Other Ecosystems PPT to compare the Meadow Simulation to different ecosystems. Remind students that the Meadow Simulation was a simulation of one specific ecosystem: a meadow. Show students the biomass pyramid on Slide 3 and discuss how it represents the patterns observed in the simulation.

Unit map You are here Use the instructional model to show students where they are in the course of the unit. Show slide 2 of the 2.4 Organic Carbon Pools in Other Ecosystems PPT.

Let’s look at organic carbon pools in real ecosystems Cornfield Prairie Have students predict which ecosystems have the largest organic carbon pools. Use slide 3 to introduce four different types of ecosystems. Have students consider two ecosystems at a time—prairie vs. desert and cornfield vs. forest—during Slides 4-11. Students should write down a prediction on a piece of paper. Ask: Which ecosystem will have the most organic carbon? They could also predict which pool they think will be the largest. Accommodation: Have students share their predictions to the class for the question “Which ecosystem will have the most organic carbon?” As students share their predictions, write down these predictions on a sheet of paper or the board. Image Credit: Hannah Miller Desert Forest

Which ecosystem do you think has the most organic carbon? Have students consider two ecosystems at a time—prairie vs. desert and cornfield vs. forest—during Slides 4-11. Students should write down a prediction on a piece of paper. Ask: Which ecosystem will have the most organic carbon? They could also predict which pool they think will be the largest. Image Credit: Hannah Miller Prairie Desert

Notice the pattern of organic carbon pool sizes Atmosphere CO2 Carnivores organic carbon Herbivores organic carbon Producers organic carbon Soil organic carbon 30 190 2 0.1 Have students consider two ecosystems at a time—prairie vs. desert and cornfield vs. forest—during Slides 4-11. Students should write down a prediction on a piece of paper. Ask: Which ecosystem will have the most organic carbon? They could also predict which pool they think will be the largest. Image Credit: Hannah Miller Prairie

Notice the pattern of organic carbon pool sizes Atmosphere CO2 Carnivores organic carbon Herbivores organic carbon Producers organic carbon Soil Organic Carbon 3 56 0.4 0.02 Have students consider two ecosystems at a time—prairie vs. desert and cornfield vs. forest—during Slides 4-11. Students should write down a prediction on a piece of paper. Ask: Which ecosystem will have the most organic carbon? They could also predict which pool they think will be the largest. Image Credit: Hannah Miller Desert

Desert Prairie Atmosphere CO2 Carnivores organic carbon Herbivores organic carbon Producers organic carbon Soil Organic Carbon 3 56 0.4 0.02 Atmosphere CO2 Carnivores organic carbon Herbivores organic carbon Producers organic carbon Soil Organic Carbon 30 190 2 0.1 0.1 2 Have students consider two ecosystems at a time—prairie vs. desert and cornfield vs. forest—during Slides 4-11. Students should write down a prediction on a piece of paper. Ask: Which ecosystem will have the most organic carbon? They could also predict which pool they think will be the largest. 190 30

Which ecosystem do you think has the most organic carbon? Have students consider two ecosystems at a time—prairie vs. desert and cornfield vs. forest—during Slides 4-11. Students should write down a prediction on a piece of paper. Ask: Which ecosystem will have the most organic carbon? They could also predict which pool they think will be the largest. Image Credit: Hannah Miller Cornfield Forest

Notice the pattern of organic carbon pool sizes Atmosphere CO2 Carnivores organic carbon Herbivores organic carbon Producers organic carbon Soil Organic Carbon 14 127 1 0.1 Have students consider two ecosystems at a time—prairie vs. desert and cornfield vs. forest—during Slides 4-11. Students should write down a prediction on a piece of paper. Ask: Which ecosystem will have the most organic carbon? They could also predict which pool they think will be the largest. Image Credit: Hannah Miller Cornfield

Notice the pattern of organic carbon pool sizes Atmosphere CO2 Carnivores organic carbon Herbivores organic carbon Producers organic carbon Soil Organic Carbon 80 118 9 0.7 Have students consider two ecosystems at a time—prairie vs. desert and cornfield vs. forest—during Slides 4-11. Students should write down a prediction on a piece of paper. Ask: Which ecosystem will have the most organic carbon? They could also predict which pool they think will be the largest. Image Credit: Hannah Miller Forest

Forest Cornfield Atmosphere CO2 Carnivores organic carbon Herbivores organic carbon Producers organic carbon Soil Organic Carbon 80 118 9 0.7 Atmosphere CO2 Carnivores organic carbon Herbivores organic carbon Producers organic carbon Soil Organic Carbon 14 127 1 0.1 0.1 1 Have students consider two ecosystems at a time—prairie vs. desert and cornfield vs. forest—during Slides 4-11. Students should write down a prediction on a piece of paper. Ask: Which ecosystem will have the most organic carbon? They could also predict which pool they think will be the largest. 127 14

Desert Prairie Forest Cornfield Atmosphere CO2 Carnivores organic carbon Herbivores organic carbon Producers organic carbon Soil Organic Carbon Atmosphere CO2 Carnivores organic carbon Herbivores organic carbon Producers organic carbon Soil Organic Carbon Atmosphere CO2 Carnivores organic carbon Herbivores organic carbon Producers organic carbon Soil Organic Carbon Atmosphere CO2 Carnivores organic carbon Herbivores organic carbon Producers organic carbon Soil Organic Carbon 0.7 0.1 0.02 0.1 9 1 2 0.4 Compare four different ecosystems. Use Slide 12 of the PPT to prompt students to write down as many observations as they can about the differences between the four ecosystems. The main thing they should notice is that the relative sizes of ecosystem pools is the same across ecosystems: the largest pool is the soil organic carbon, followed by producers, then herbivores, then carnivores. They may also notice that soil organic carbon is the largest pool in the prairie, but the forest has the most organic carbon in producers. You may use this opportunity to talk about how pool sizes are different because of the history of the site (lots of grasses growing and dying increase the soil organic carbon pool) and the size of the organisms that live there (trees versus corn). They should also notice that the total organic carbon differs across ecosystems. Image Credit: Hannah Miller 118 80 127 14 30 56 3 190

How are all four ecosystems alike? Soil contains the largest pool of organic carbon The producers pools is bigger than the herbivores pool The herbivores pool is bigger than the carnivores pool Carnivores are the smallest pool of organic carbon Total mass of carnivores herbivores plants Use Slide 13 to revisit the main pattern from the meadow simulation: the biomass pyramid. Use Slide 14 to introduce carrying capacity. Carrying capacity is the amount of total organic carbon in an ecosystem. Students will be exploring carrying capacity more in Lesson 4. Ecologists answer the last question (about why different ecosystems have different carrying capacities) by identifying limiting factors, including: Water (the primary limiting factor for deserts) Temperature (the primary limiting factor in Arctic and alpine ecosystems) Nutrient availability (the primary limiting factor in rain forests) This is a good time elicit students’ ideas and questions about what limits carrying capacity of different ecosystems. You do not need to teach about limiting factors at this point. Accommodation: For the information on the final slide, as a class create biomass pyramids or other bar graphs to show the size of the pools as visuals. Have students describe the organic matter pools in the four ecosystems (desert, forest, corn field, and prairie) including the herbivores, producers, and carnivores that live in each ecosystem.

How are the ecosystems different? Different ecosystems have different amounts of total organic carbon (soil + producers + herbivores + carnivores). The amount of organic carbon that an ecosystem can sustain is the carrying capacity. Why do you think different ecosystems have different carrying capacities? Use Slide 14 to introduce carrying capacity. Carrying capacity is the amount of total organic carbon in an ecosystem. Students will be exploring carrying capacity more in Lesson 4. Ecologists answer the last question (about why different ecosystems have different carrying capacities) by identifying limiting factors, including: Water (the primary limiting factor for deserts) Temperature (the primary limiting factor in Arctic and alpine ecosystems) Nutrient availability (the primary limiting factor in rain forests) This is a good time elicit students’ ideas and questions about what limits carrying capacity of different ecosystems. You do not need to teach about limiting factors at this point. Accommodation: For the information on the final slide, as a class create biomass pyramids or other bar graphs to show the size of the pools as visuals. Have students describe the organic matter pools in the four ecosystems (desert, forest, corn field, and prairie) including the herbivores, producers, and carnivores that live in each ecosystem.