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SpaceX has officially secured the permission it needs to begin landing its Falcon 9 rocket boosters in the waters of The Bahamas again. This development marks a major turning point for the aerospace company after a pause that lasted nearly a year. The suspension began following a test flight mishap where debris scattered over parts of the island nation. According to company plans and government approvals, these landings are scheduled to resume in the weeks following the February 17 approval, assuming all operational conditions remain favorable.
The Civil Aviation Authority of The Bahamas (CAA-B) officially granted approval on February 17 to restart Falcon 9 first-stage touchdowns within the nation's territorial waters. This decision brings an end to a long and complicated regulatory review process. The review was triggered by a specific incident involving SpaceX's Starship megarocket. During a test flight nearly a year prior, parts and debris from the vehicle fell onto the islands, prompting immediate concern among local officials and environmental agencies.
The new approval indicates that the government is satisfied regarding the safety and environmental impact of these future operations. Officials from the CAA-B stated in a formal update on their website that "all requisite regulatory and environmental reviews and clearances have been completed in accordance with aerospace safety and operational protocols." This statement confirms that the extensive scrutiny the partnership underwent has concluded with a favorable outcome for the space exploration company.
The collaboration between SpaceX and The Bahamas was originally announced in early 2025. This strategic partnership allows Falcon 9 rockets launching from Florida's Space Coast to access a wider variety of orbital trajectories. Without this option, most Falcon 9 launches from Florida would follow a more easterly path, sending their boosters down to land in the open Atlantic Ocean. By utilizing the waters near The Bahamas, SpaceX gains the flexibility to target different orbits that might otherwise be unreachable or less fuel-efficient.