Under clear Florida skies, SpaceX successfully launched another batch of its Starlink satellites on September 3, 2020, marking a smooth recovery for a mission delayed twice by weather and data review. At 8:46 a.m. EDT, a Falcon 9 rocket lifted off from Pad 39A at NASA’s Kennedy Space Center carrying 60 flat-panel satellites designed to expand the company’s growing broadband constellation. Nine minutes after launch, the first stage returned to Earth, touching down on the drone ship “Of Course I Still Love You” stationed in the Atlantic Ocean.

This flight was the first Starlink mission of September and the 16th overall for SpaceX in 2020. The booster used, designated B1060, had previously flown in June to deliver a GPS III satellite for the United States Space Force—a mission notable for being the first of its kind where SpaceX was allowed to recover the booster. Historically, such military launches used expendable rockets, but approval for recovery signaled a shift toward greater reusability in defense payload missions.
The launch followed a thwarted attempt at a rare “doubleheader” on August 30, when SpaceX aimed to send two Falcon 9s aloft from separate pads in one day. Summer thunderstorms and lightning near the pads prevented not only the launches but also media access for remote camera setup. The improved forecast for September 3 brought favorable conditions, and the mission proceeded without incident. “What a beautiful sight,” said SpaceX engineer and launch commentator Kate Tice as the satellites deployed smoothly.
With this deployment, SpaceX has placed more than 700 Starlink satellites into orbit since the first launch in May 2019. Elon Musk has stated that between 500 and 800 satellites are needed before initial service rollout, and the company is already beta-testing its network. The Starlink system aims to provide high-speed, low-latency internet globally, especially to underserved rural and remote regions. User terminals, roughly laptop-sized, connect directly to the orbiting fleet.
The satellites launched in this mission are equipped with a special visor designed to reduce brightness, a measure developed in consultation with astronomers concerned about interference with night-sky observations. The visor prevents sunlight from reflecting off key surfaces such as antennas, addressing complaints that early Starlink satellites appeared as bright trains across the sky during orbital insertion.
SpaceX’s ambitions extend far beyond this initial constellation of 1,440 satellites. The U.S. Federal Communications Commission has authorized up to 12,000 satellites in low Earth orbit. Production in Washington state reportedly yields about six satellites per day, enabling a launch cadence of one Starlink mission every two to three weeks.
The company’s focus on reusability continues to redefine launch economics. Since recovering its first Falcon 9 booster in 2015, SpaceX has landed first stages 60 times, often on drone ships stationed offshore. In addition to boosters, SpaceX now recovers payload fairings—two clamshell-like halves that protect cargo during ascent—using vessels GO Ms. Tree and GO Ms. Chief. Outfitted with giant nets, these ships attempt to catch fairings before they hit the ocean, or retrieve them shortly after splashdown. Each fairing set costs about $6 million, making recovery a significant cost-saving measure.
For this mission, fairing recovery efforts were coordinated between the two vessels, with GO Ms. Chief having recently retrieved fairings from the SAOCOM-1B mission before returning to sea to join GO Ms. Tree for Starlink. Recovery operations typically occur around 40 minutes after liftoff, depending on weather and sea conditions.
The September 3 launch underscores SpaceX’s ability to integrate rapid turnaround, hardware reusability, and high-volume satellite deployment into a cohesive operational model. With each mission, the company edges closer to its goal of providing global broadband coverage while navigating the technical and ethical challenges posed by a massive satellite presence in Earth’s orbit.
