Space Exploration Technologies Corp. has submitted a comprehensive application to the Federal Communications Commission seeking authorization to deploy one hundred thousand third-generation Starlink satellites. The proposal outlines a massive expansion of low Earth orbit infrastructure, designed to function as the global communication backbone for both terrestrial networks and future extraterrestrial settlements. If approved, the constellation will operate between 320 and 470 kilometers above Earth, significantly closer than current generations to minimize latency. Each next-generation satellite is projected to weigh approximately two metric tons and deliver a single downlink capacity of one terabit per second. Leveraging an expanded suite of frequency bands, including newly requested W and D spectrums, the full network is engineered to achieve a total throughput of roughly four terabits per second, positioning the system to service billions of users and hundreds of billions of AI-connected devices. Executing this orbital expansion requires capabilities beyond current launch vehicles. The company has indicated that only its next-generation Starship system can deploy these heavy payloads economically, emphasizing the rocket's critical role in both broadband expansion and cargo logistics. To manage the unprecedented scale of the network, SpaceX has concurrently advanced a sixty-billion-dollar all-stock acquisition of Anysphere, the developer of the widely adopted AI coding assistant Cursor. Industry analysts note that the acquisition is strategically aligned with automating the complex orbital mechanics, spectrum routing, and fault diagnostics required to operate a hundred-satellite constellation without manual intervention. Parallel to the terrestrial broadband initiative, executive leadership has recalibrated its interplanetary colonization strategy, elevating the Moon as the immediate priority over Mars. The revised roadmap targets a self-sustaining lunar habitat within a decade, with Martian settlement anticipated between 2045 and 2055. Notably, the initial phase of extraterrestrial construction will be led by Tesla Optimus humanoid robots rather than human crews. By relying on autonomous solar power, minimal maintenance, and advanced manufacturing capabilities, these machines will prospect for water ice, deploy energy grids, construct pressurized habitats, and refine propellant before human transit. The regulatory pathway for the satellite array remains protracted. The FCC application is expected to undergo rigorous review due to concerns from astronomical communities and competing operators regarding orbital traffic density and optical interference. In response, the company has pledged to actively deorbit satellites after a five-year operational lifecycle and is collaborating with observatories to mitigate light reflection. Success hinges on demonstrating Starship's heavy-lift reliability and advancing autonomous robotics for deep-space infrastructure. Together, these initiatives chart a singular trajectory: establishing a robust low Earth orbit communications lattice that directly enables the logistical and technological foundations for permanent off-world cities.