Starlink Outage in Miami – Live Status & Performance

Positioned at Latitude 25.8°N, user terminals in Miami communicate with equatorial and mid-inclination low Earth orbit (LEO) orbital planes orbiting at ~550km. Advanced electronic beamforming actively tracks ascending and descending orbital passes (25°–80° elevation), sustaining consistent Ku-band throughput across wide tropical orbital arcs. Local RF dynamics: Flat coastal limestone plain sandwiched between Biscayne Bay and the Everglades wetland wilderness. Tropical convective summer downpours deliver intense rain fade events, but terrain is 100% flat.

Positioned near the equatorial plane, user terminals in Miami sweep across low-inclination orbital planes every 3 to 4 minutes using agile electronic phased-array steering. Downlink Ku-band signals are downconverted through direct Ka-band feeder pipes to SpaceX Teleport Punta Gorda / Miami (FL) and integrated with NAP of the Americas (Equinix MI1 Miami). To counter heavy localized tropical thunderstorm attenuation, the constellation leverages optical space laser crosslinks (ISL) to dynamically reroute data packets above dense moisture cells to alternate clear-sky ground stations.

High-frequency microwave signals transmitted in the Ku-band are naturally subject to atmospheric attenuation when passing through intense tropical convective squalls, high-density monsoon clouds, or thunderstorm anvil tops. When localized tropical precipitation exceeds 35–50 mm/h, Starlink user terminals automatically ramp up uplink transmitter power (Adaptive Coding and Modulation) to maintain link margin. If towering convective cells overwhelm signal headroom, users in Miami may experience transient speed throttling or 1-to-3 minute signal dropouts until the convective storm cell clears the optical look angle.

In Miami, physical obstructions represent the primary source of intermittent dropouts. Mature royal palm and coconut palm crowns, spreading southern live oaks, slash pines, and low-pitch tile roof ridges can subtly block sections of the dish's 100° tracking cone. Because satellites continuously traverse the sky, an obstruction clipping even 0.8% of the optical path triggers packet loss. Utilizing the Starlink App 3D obstruction camera and mounting dishes on roof ridges or flashing mounts ensures continuous, optimal line of sight.