Much like flowers shifting position as the day progresses, Proteus’ onboard technology allows its double-sided panels to turn in tandem with the sun’s movement in order to consistently generate as much solar power as possible. Because of this, SolarisFloat estimates Proteus can generate as much as 40 percent more energy than nonmoving arrays on land. Another benefit comes from its ability to maintain lower temperatures than land-based counterparts thanks to the water-cooled air underneath it. There are a few limitations to a sun-tracking solar farm, however. For one thing, location matters—Proteus’ onboard tracking systems won’t mean much anywhere near the Equator, where the panels would stay virtually horizontal the entire day. Additionally, the setup would need to be installed in areas with comparatively weaker tidal currents and fair weather. Still, projects like Proteus can potentially help overcome one of the chief barriers to widespread solar power adoption—the comparatively massive amounts of space that panel arrays require to harvest their energy. One study from Leiden University in The Netherlands even estimates that solar farms need somewhere between 40-50 times the area of coal plants, and 90-100 times the land needed by the gas providers. Land value will only increase as the world continues transitioning towards completely renewable energy, meaning it’s likely that solar projects will compete against other vital usages like sustainable farming and forest seeding. Situating solar farms atop otherwise unused bodies of water could be a relatively simple, effective way to allow space for all of the required projects needed to stave off the worst effects of climate change.
