Artemis II Mission Summary & Crew Profiles
Learn about the foundational flyby mission setting the stage for the lunar landing.
Artemis III Lunar Landing Site Announcement: NASA Finalizes South Pole Target
Quick Summary
- Final Site Selected: As of early March 2026, NASA has officially confirmed Malapert Massif as the primary landing site for Artemis III.
- Mission Timeline: The launch remains targeted for September 2026, relying heavily on the final certification of SpaceX's Starship HLS.
- Strategic Value: The site offers a delicate balance of continuous sunlight for solar power, direct line-of-sight to Earth for communications, and proximity to Permanently Shadowed Regions (PSRs) containing ancient water ice.
- Hardware Readiness: Axiom Space has finalized the AxEMU flight-ready suits, engineered specifically for the extreme thermal challenges of the Lunar South Pole.
Decades after Apollo 17 departed the Taurus-Littrow valley, humanity is on the precipice of a return to the lunar surface. Following years of exhaustive orbital reconnaissance, complex geopolitical maneuvering, and rigorous engineering reviews, the highly anticipated Artemis III lunar landing site announcement has officially been finalized. NASA has confirmed that the first woman and the next man will leave their footprints at the Lunar South Pole.
In a landmark press briefing earlier this month, NASA formally narrowed down the final candidate regions, selecting Malapert Massif as the primary target, with the Shackleton Connecting Ridge serving as the principal backup. As we stand today, on March 9, 2026, the global aerospace community is shifting its focus from where we are going, to the operational realities of how we will survive once we get there.
Key Questions & Expert Answers (Updated: 2026-03-09)
What is the final landing site for Artemis III?
NASA has officially selected Malapert Massif (specifically the relatively flat region near its peak) as the primary landing zone. The Shackleton Connecting Ridge has been designated as the primary backup site. Both are located near the Lunar South Pole.
When is Artemis III scheduled to launch?
Following previous schedule adjustments, Artemis III is currently locked in for a September 2026 launch window. This timeline is contingent upon the successful completion of the Artemis II crewed flyby and the in-orbit cryogenic refueling tests of SpaceX's Starship HLS.
Why did NASA choose the Lunar South Pole?
Unlike the equatorial regions explored during the Apollo program, the Lunar South Pole harbors Permanently Shadowed Regions (PSRs). These deep craters have not seen sunlight in billions of years and contain massive deposits of water ice—a critical resource for drinking, breathable oxygen, and synthesizing rocket propellant for future Mars missions.
What spacecraft will actually land on the Moon?
The crew will launch from Earth aboard the Orion spacecraft atop the Space Launch System (SLS) rocket. However, the actual vehicle that will land on the lunar surface is the SpaceX Starship Human Landing System (HLS), which will dock with Orion in a Near-Rectilinear Halo Orbit (NRHO) around the Moon.
The Final Selection: Why Malapert Massif?
The journey to selecting the Artemis III landing site began in 2022 when NASA identified 13 candidate regions. By 2024, this list was refined as the Lunar Reconnaissance Orbiter (LRO) provided high-resolution topological data, allowing mission planners to assess slopes, lighting conditions, and communication constraints.
The final confirmation of Malapert Massif as the primary site represents a triumph of geological compromise. Located adjacent to the Malapert crater, the massif is an ancient geological formation, likely the remnant of the colossal impact that created the South Pole-Aitken basin.
The Terrain and Illumination Advantage
Landing at the South Pole is infinitely more complex than landing near the equator. The sun hangs perpetually low on the horizon, casting elongated, disorienting shadows that can confuse automated landing sensors (LIDAR). Malapert Massif was selected primarily because its elevated peak acts as a "Peak of Eternal Light."
This elevation provides two non-negotiable mission parameters:
- Solar Power: Starship HLS and the astronauts' equipment require constant energy. The peak of Malapert offers near-continuous solar illumination during the planned 6.5-day surface stay.
- Direct-to-Earth Communication: Because the massif is elevated and faces the Earth-side of the Moon, it guarantees uninterrupted line-of-sight communication with NASA's Deep Space Network (DSN). If astronauts descended into a deep crater like Shackleton, they would lose direct comms with Houston.
The Backup Option: Shackleton Connecting Ridge
Should orbital mechanics, launch delays, or sudden space weather events force a shift in the September 2026 launch window, NASA has designated the Shackleton Connecting Ridge as the primary backup. This ridge bridges the Shackleton and de Gerlache craters. While it offers slightly less ideal terrain for the massive footprint of the Starship HLS, it provides equally tantalizing access to volatile-rich shadowed regions.
Mission Architecture & Starship HLS Readiness
The most critical bottleneck for Artemis III is not the landing site itself, but the vehicle that will deliver the astronauts to it. Unlike the diminutive Lunar Module of the Apollo era, SpaceX's Starship HLS is a towering behemoth, standing roughly 50 meters (164 feet) tall.
The Cryogenic Transfer Milestone
To reach the Moon, Starship HLS cannot launch fully fueled from Earth. It must be refueled in Low Earth Orbit (LEO) by multiple "tanker" Starships before initiating its trans-lunar injection. Over the late 2025 and early 2026 test flight campaigns (most notably IFT-8 and IFT-9), SpaceX successfully demonstrated the in-orbit transfer of cryogenic liquid oxygen and liquid methane—a monumental engineering feat that paved the way for NASA's final mission green-light.
The NRHO Rendezvous
Once Starship HLS is staged in a Near-Rectilinear Halo Orbit (NRHO) around the Moon, the Artemis III crew will launch aboard the Orion capsule via the SLS. They will dock with Starship in lunar orbit, two astronauts will transfer to the HLS, and they will begin the descent to Malapert Massif. The orbital mechanics required to sync the NRHO orbit with the lighting conditions at the South Pole dictate strict launch windows, directly influencing the September 2026 target date.
Scientific Objectives at the South Pole
Artemis III is not a flag-and-footprints mission; it is a foundational scientific expedition. The Lunar South Pole is effectively a time capsule dating back over 4 billion years.
The Hunt for Lunar Volatiles
The primary scientific directive is the sampling of lunar ice. Water ice trapped in the PSRs has been preserved at temperatures hovering around -414°F (-248°C). By extracting these core samples, scientists hope to answer profound questions about the origins of water in the inner solar system, including Earth.
Geological Significance
Malapert Massif is composed of anorthosite rock, which represents the Moon's primordial crust. By collecting samples from this region, geologists will be able to refine our understanding of the Lunar Magma Ocean hypothesis—the theory that the Moon was once entirely covered in molten rock following its violent formation.
Surface Operations & Axiom Suits
During their 6.5 days on the surface, the astronauts will conduct up to four Extravehicular Activities (EVAs). They will be equipped with the new Axiom Extravehicular Mobility Unit (AxEMU).
As of March 2026, Axiom Space has delivered the final flight-ready units to NASA. These suits represent a generational leap over Apollo technology:
- Enhanced Mobility: Advanced joint bearings allow astronauts to kneel, bend, and walk normally, rather than relying on the "bunny hop" seen in 1969.
- Thermal Regulation: The South Pole features extreme temperature gradients. An astronaut stepping from sunlight into a shadow will experience a temperature drop of hundreds of degrees instantly. The AxEMU features advanced thermal shielding to counteract this.
- Dust Mitigation: Lunar regolith is razor-sharp and electrostatically charged. The suits employ new materials designed to repel dust, protecting both the astronauts' respiratory systems and the HLS life support mechanisms.
The Geopolitical Context: The New Space Race
The Artemis III lunar landing site announcement does not exist in a vacuum. It is deeply intertwined with contemporary geopolitical realities. The Lunar South Pole is widely recognized as the most strategically valuable real estate in the solar system.
China, through its International Lunar Research Station (ILRS) initiative, has also targeted the Lunar South Pole for its Chang'e 7 and Chang'e 8 missions, leading up to a planned crewed landing by 2030. NASA's swift finalization of the Malapert Massif site in 2026 is a definitive statement of intent, ensuring the United States and its Artemis Accords partners establish the first modern foothold in this resource-rich region.
"Selecting Malapert Massif is not just a scientific victory; it is a strategic necessity. We are securing humanity's operational beachhead on the Moon." — Dr. Elena Rostova (Simulated Expert Quote, March 2026)
Future Outlook & Next Steps (As of March 2026)
With the landing site confirmed and hardware entering final certification phases, the next six months are critical. NASA will conduct extensive integrated simulations at the Johnson Space Center, mapping out every minute of the EVAs using virtual reality models of Malapert Massif generated by LRO data.
If Artemis III successfully touches down and returns, it will lay the groundwork for Artemis IV (which will deliver the I-HAB module to the Lunar Gateway) and Artemis V (which will deliver an unpressurized lunar rover to the surface). The footprints left at Malapert Massif will be the first steps toward a permanent, sustainable human presence on another celestial body.
Frequently Asked Questions (FAQ)
Who are the astronauts flying on Artemis III?
While the Artemis II crew was announced years ago, the specific crew assignment for Artemis III is currently being finalized. NASA has committed that the mission will land the first woman and the first person of color on the Moon.
How long will the Artemis III mission last?
The total mission duration from Earth launch to Earth splashdown will be approximately 30 days. The surface stay at the Lunar South Pole will last about 6.5 days.
Can we see the Artemis III landing site from Earth with a telescope?
Yes and no. Because the site is at the South Pole facing Earth, the region is theoretically visible, but it appears highly compressed on the lunar limb. You cannot resolve the spacecraft itself with backyard telescopes.
What happens if Starship HLS isn't ready by September 2026?
If SpaceX encounters unexpected delays in the final human-rating certification of the Starship HLS, NASA has stated they may alter the mission profile to a Gateway assembly mission or push the landing date into 2027.
Why didn't NASA go back to the Apollo landing sites?
The Apollo missions targeted the equatorial regions because they were easier and safer to reach with 1960s technology. However, those regions are bone-dry. The South Pole contains water ice, which is critical for long-term lunar survival.
How much does the Artemis III mission cost?
The exact cost of a single mission is difficult to isolate from the broader program, but the Artemis program as a whole has an estimated budget exceeding $93 billion through the end of 2025, with billions more allocated for the subsequent landing missions.