In May of 2018, NASA’s Interior Exploration using Seismic Investigations, Geodesy, and Heat Transport (InSight) landed on the Martian surface. This mission is the first of its kind, as all previous orbiters, landers, and rovers focused on studying the surface and atmosphere of Mars. In contrast, InSight was tasked with characterizing Mars’ interior structure and measuring the core, mantle, and crust by reading its seismic activity (aka. “marsquakes”).
The purpose of this is to learn more about the geological evolution of Mars since it formed 4.5 billion years ago, which will also provide insight into the formation of Earth. According to three recently published papers, the data obtained by InSight has led to new analyses on the depth and composition of Mars’ crust, mantle and confirmed the theory that the planet’s inner core is molten.
An opportunity in 2019 lays the groundwork for balloon-borne detectors on Venus, working to unravel a key mystery.
The skies of Venus may become a busy place in the coming decade, using technology field-tested here on Earth.
A team out of NASA JPL-Caltech hypothesized that terrestrial earthquakes should also produce low-frequency infrasonic sound waves, which would be transmitted from the ground through the atmosphere as changes in barometric pressure. These sound waves, while difficult to detect, should be measurable via highly sensitive barometers carried aloft.
On Feb. 18th, 2021, NASA’s Perseverance rover landed within the Jezero Crater on Mars. Like its predecessor, Curiosity, a fellow member of NASA’s Mars Exploration Program (MEP), the goal of Perseverance is to seek out evidence of possible life on Mars (past and present). A key part of this mission will be the first sample return ever performed on Mars, where samples obtained by Perseverance will be placed in a cache for later retrieval and return to Earth.
For the past five months, mission controllers at NASA have been driving the rover further from where it landed (Octavia E. Butler Landing Site) and conducting test flights with the Ingenuityhelicopter. NASA is now in the midst of making final preparations for Perseverance to collect its first sample of Martian rock. This historic first is expected to begin by the end of the month or by early August and will culminate with the return of the samples to Earth by 2031.
In less than three years, astronauts will return to the Moon for the first time since the Apollo Era. As part of the Artemis Program, the purpose is not only to send crewed missions back to the lunar surface to explore and collect samples. This time around, there’s also the goal of establishing vital infrastructure (like the Lunar Gateway and a Base Camp) that will allow for “sustained lunar exploration.”
A key requirement for this ambitious plan is the provision of power, which can be difficult in regions like the South Pole-Aitken Basin – a cratered region that is permanently-shadowed. To address this, a researcher from the NASA Langley Research Center named Charles Taylor has proposed a novel concept known as “Light Bender.” Using telescope optics, this system would to capture and distribute sunlight on the Moon.