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SpaceX’ s recent June IPO initially reached a $ 2 trillion valuation milestone and projections say that SpaceX revenue will hit $ 322B by 2030. Blue Origin and other space companies are likely to follow suit due to the success and interest in the general market. Investing in space-based technologies, and specifically in Low- Earth orbit( LEO), are rising in popularity as a profitable place to solve the ongoing energy demand with technologies like solar panels in space and orbital AI data centers. LEO is also seen as a forward-looking answer to provide reliable communications for commercial and defense purposes through satellites.
To drive this strong defense, communication, space exploration expansion, and supply the energy expectations on Earth, hundreds more megawatts( MW) of power capacity from solar panels in space are needed to reach this demand and power space crafts.
A decade ago, space only needed
▲ Paul Warley about four-to-six MW of power generated to operate because the lineup of galactic players was so low. Solar power is now the clear driving force behind this energy expansion, while significant growth in both domestic and international supply chains has enabled the evolution of solar panels from four MW-scale projects to deployments of hundreds of megawatts.
The challenges to reach rising power expectations
With roughly 100 MW of combined solar
capacity orbiting in space today, 90 percent of which comes from SpaceX technology alone, we’ ve come a long way from the three MW generated in space, but we’ re still a long way to hit the
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