13:I[2754,["2972","static/chunks/2972-6f5d56019c5c6a42.js","3868","static/chunks/app/tags/%5Bid%5D/page-e0de42c5bec059fc.js"],"default",1] 14:I[8387,["2972","static/chunks/2972-6f5d56019c5c6a42.js","3868","static/chunks/app/tags/%5Bid%5D/page-e0de42c5bec059fc.js"],"default",1] 16:I[2972,["2972","static/chunks/2972-6f5d56019c5c6a42.js","3868","static/chunks/app/tags/%5Bid%5D/page-e0de42c5bec059fc.js"],""] 15:T735,

Carbon Capture: Can We Power the Solution?

As climate change accelerates, the race to remove excess carbon from our atmosphere has become increasingly urgent. But a critical question remains: will we have enough power to make carbon removal technologies truly effective?

Current carbon capture technologies require substantial energy inputs, creating a complex challenge for scientists and engineers. Direct air capture (DAC) systems, which extract carbon dioxide directly from the atmosphere, can consume significant electricity—sometimes more energy than they ultimately save.

Most DAC technologies currently require 1-2 megawatt-hours of electricity to remove one ton of CO2
Global energy infrastructure must dramatically scale to support widespread carbon removal
Renewable energy sources like solar and wind are crucial to making carbon capture sustainable

Experts from the International Energy Agency suggest that by 2050, we'll need to remove approximately 5-10 gigatons of CO2 annually. This ambitious goal demands not just technological innovation, but a complete reimagining of our global energy systems.

Promising developments are emerging. Breakthrough technologies like enhanced rock weathering, biochar production, and advanced DAC systems are showing potential for more energy-efficient carbon removal. Moreover, integrating these technologies with renewable energy infrastructure could create a synergistic approach to climate mitigation.

The path forward requires collaborative global investment, technological innovation, and a commitm

Enhanced Rock Weathering on FusePop