Success September 24, 2025 • 7:30 AM UTC

Falcon 9 Block 5 | IMAP & others

Falcon 9 • Falcon

Launch ID
689d7129-10fa-4df9-b81e-2b8fb926bbaf
Rocket
Falcon 9
Type
Falcon
Coordinates
28.608°, -80.604°
Open in Google Maps 🗺️

📝 Mission Description

This Falcon 9 launch carries the Falcon 9 Block 5 | IMAP & others mission, scheduled for September 24, 2025. The mission aims to deliver important payloads to orbit, contributing to our understanding of space and advancing technological capabilities.

ℹ️ Official Details

IMAP (Interstellar Mapping and Acceleration Probe) is a NASA mission to study interactions between solar wind and the local interstellar medium. Carrying a suite of 10 scientific instruments, IMAP is able to investigate how particles are accelerated, determine their composition, as well as help to advance space weather forecasting models.

The IMAP launch also includes the space weather satellite SWFO-L1 (Space Weather Follow-On - L1) for NOAA and the GLIDE (Global Lyman-alpha Imagers of the Dynamic Exosphere/Carruthers Geocorona Observatory) mission to study far ultraviolet emission in the Earth's exosphere.

🎯 Post-Launch Analysis

Post-Launch Analysis: Falcon 9 Block 5 | IMAP & Others (September 24, 2025)

The Falcon 9 Block 5 launch of NASA’s IMAP mission, alongside NOAA’s SWFO-L1 and the GLIDE observatory, achieved a flawless execution on September 24, 2025. The rocket’s ascent profile was nominal, with precise stage separation and booster recovery, reinforcing the reliability of the reusable Falcon 9 design. Payload deployment occurred as planned, with IMAP and co-manifested satellites achieving their targeted orbits, validated by early telemetry confirming nominal spacecraft health.

IMAP’s suite of 10 instruments is now poised to revolutionize our understanding of solar wind-interstellar medium interactions, while SWFO-L1 and GLIDE enhance space weather forecasting and exospheric studies, respectively. This mission further validates Falcon 9’s multi-payload adaptability and SpaceX’s precision in orbital insertion. Strategically, it sets a benchmark for future heliophysics missions, demonstrating scalable launch architectures and reinforcing confidence in public-private partnerships for complex scientific endeavors.