NOAA’s SOLAR-1 Turns Fully Operational After 1 Million-Mile Trip as 3 Solar Flares Trigger Blackouts
Updated
Updated · Fox Weather · Jun 10
NOAA’s SOLAR-1 Turns Fully Operational After 1 Million-Mile Trip as 3 Solar Flares Trigger Blackouts
3 articles · Updated · Fox Weather · Jun 10
Summary
Three solar flares in less than 24 hours caused multiple radio blackouts across Earth as NOAA said its SOLAR-1 space-weather satellite is now fully operational at the Sun-Earth L1 point.
1 million miles from Earth, SOLAR-1 continuously tracks solar wind and coronal mass ejections, sending real-time data to NOAA’s Space Weather Prediction Center for faster forecasts, watches and warnings.
30 minutes after capture, the satellite’s coronagraph can deliver CME imagery to forecasters, improving on older instruments after a four-month cruise and eight-month testing and commissioning period.
The first U.S. satellite built solely for continuous operational space-weather observations is meant to give grid operators, satellite companies, aviation, national security teams and Artemis missions more time to prepare.
Real-time public data from SOLAR-1 will also feed NOAA’s broader early-warning system as solar storms threaten communications, navigation, power grids and other critical infrastructure.
SOLAR-1 provides faster warnings, but how are power grids and airlines actually using this data to prevent disaster?
With one satellite as our main defense, what happens if it fails during a once-in-a-century solar superstorm?
With solar storms intensifying, is our new space shield enough to protect the global economy from a catastrophic blackout?
Solar Storms and Space Weather in June 2026: Impacts, Risks, and the Role of NOAA’s SOLAR-1 Mission
Overview
In early June 2026, the Sun produced notable M-class flares, including an M9.3 event. However, these flares were not in a position that would strongly affect Earth, so their ability to trigger major solar radiation storms was greatly reduced. The Space Weather Prediction Center determined that a particle event from the M9.3 flare was unlikely due to its location on the solar disk. As a result, global effects from solar radiation storms remained minimal, with storm conditions staying below NOAA thresholds and proton flux levels at background values during this period.