NASA and Blue Origin have successfully launched two spacecraft, ESCAPADE, to study the Martian magnetic environment and prepare for future human exploration of Mars. The twin spacecraft, built by Rocket Lab, will investigate how solar wind particles strip away the planet's atmosphere.
The mission aims to reveal how Mars became a desert planet and understand the effects of solar eruptions on the Martian surface. The ESCAPADE spacecraft are equipped with advanced technology to study space weather conditions in real-time, providing valuable insights for future astronauts.
To begin their journey, the twin spacecraft will travel to Lagrange point 2, a million miles from Earth, before looping back to Earth and using its gravity to slingshot themselves toward Mars. This trajectory is designed to allow future missions to launch nearly anytime and wait in space until the two planets are aligned.
After a 10-month cruise, ESCAPADE is expected to arrive at Mars in September 2027, becoming the first coordinated dual-spacecraft mission to enter orbit around another planet. The spacecraft will conduct multiple science campaigns, including studying the solar wind, Mars' upper atmosphere, and its ionosphere.
The ESCAPADE mission is funded by NASA's Heliophysics Division and is part of the agency's Small Innovative Missions for Planetary Exploration program. The launch was supported by Blue Origin under a Venture-class Acquisition of Dedicated and Rideshare contract.
NASA Administrator Sean Duffy congratulated Blue Origin, Rocket Lab, UC Berkeley, and all partners on the successful launch, saying it will help reveal how Mars became a desert planet and provide insights into Martian space weather. Nicky Fox, associate administrator at NASA Headquarters, stated that understanding Martian space weather is crucial for protecting systems, robots, and humans in extreme environments.
The ESCAPADE spacecraft will study present-day effects of the solar wind and solar storms on Mars in real-time, providing valuable information about Martian space weather. This mission marks a significant step forward for NASA's efforts to explore the Red Planet and prepare for future human missions.
The mission aims to reveal how Mars became a desert planet and understand the effects of solar eruptions on the Martian surface. The ESCAPADE spacecraft are equipped with advanced technology to study space weather conditions in real-time, providing valuable insights for future astronauts.
To begin their journey, the twin spacecraft will travel to Lagrange point 2, a million miles from Earth, before looping back to Earth and using its gravity to slingshot themselves toward Mars. This trajectory is designed to allow future missions to launch nearly anytime and wait in space until the two planets are aligned.
After a 10-month cruise, ESCAPADE is expected to arrive at Mars in September 2027, becoming the first coordinated dual-spacecraft mission to enter orbit around another planet. The spacecraft will conduct multiple science campaigns, including studying the solar wind, Mars' upper atmosphere, and its ionosphere.
The ESCAPADE mission is funded by NASA's Heliophysics Division and is part of the agency's Small Innovative Missions for Planetary Exploration program. The launch was supported by Blue Origin under a Venture-class Acquisition of Dedicated and Rideshare contract.
NASA Administrator Sean Duffy congratulated Blue Origin, Rocket Lab, UC Berkeley, and all partners on the successful launch, saying it will help reveal how Mars became a desert planet and provide insights into Martian space weather. Nicky Fox, associate administrator at NASA Headquarters, stated that understanding Martian space weather is crucial for protecting systems, robots, and humans in extreme environments.
The ESCAPADE spacecraft will study present-day effects of the solar wind and solar storms on Mars in real-time, providing valuable information about Martian space weather. This mission marks a significant step forward for NASA's efforts to explore the Red Planet and prepare for future human missions.