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Case Study 04
The Planetary Feedback Loop

Trace the flow of gigatons of carbon. Watch how natural sinks fight to stabilize the atmosphere against anthropogenic emissions.

The Earth is a closed system. Carbon doesn't disappear; it simply moves between different storage tanks. By mapping these flows, we can see how an injection of carbon from deep underground forces the rest of the planet's systems to react.

The oceans and forests act as giant shock absorbers, but even they have their limits.

The Core Mechanics ​

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Fossil Reserves

A finite stock. Burning this depletes the reserve and acts as a one-way pump into the atmosphere.

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The Ocean Sink

A massive stabilizing loop. As atmospheric carbon rises, the ocean is forced to absorb moreβ€”until it saturates.

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Forestry Turnover

Trees sequester carbon rapidly, but eventually die and decay, creating a natural biological cap on storage.

The Sandbox ​

Try this: Increase the Emission_Fraction. Watch how quickly the atmospheric tank fills, and notice the delayed lag before the oceans and forests scale up their uptake.

Try this: Lower the Ocean_Uptake_Rate. Observe what happens to atmospheric equilibrium when the planet's primary shock absorber loses efficiency.

carbon_cycle.sim

From Planets to Products ​

We've seen systems mechanics applied to money, viruses, animals, and the planet. But these exact same laws of flows and loops govern the businesses we build.

Let's look at a modern tech startup through the lens of systems dynamics.