Artemis II Crew Shares First Images and Transmissions from Beyond Earth Orbit

On the morning of April 1, 2026, an SLS rocket carrying four astronauts inside NASA's Orion capsule lifted off from Kennedy Space Center in Florida. Within two days, commander Reid Wiseman pointed a Nikon D5 camera through Orion's window and captured a full-disk photograph of Earth — the pale blue planet glowing against the black of deep space, Africa and the Iberian Peninsula visible, a green aurora shimmering near the polar regions [1]. It was the first time a human being had framed that shot since December 19, 1972, when the Apollo 17 crew splashed down in the Pacific Ocean [2].

The gap between those two moments: 53 years, three months, and 13 days.

100,000 Miles Out and Counting

As of midmorning on April 3, the Orion spacecraft was approximately 100,000 miles (160,000 km) from Earth and closing in on the Moon [1]. The mission follows a free-return trajectory — a flight path that uses the gravitational pull of both Earth and the Moon to guide the spacecraft home without requiring a major engine burn if systems fail [3]. At its farthest point, Orion is expected to reach 252,799 miles (406,841 km) from Earth [3]. The closest lunar approach will bring the crew within roughly 4,047 miles (6,513 km) of the Moon's far side [3] — a region no human has seen with the unaided eye since Apollo 17 astronauts Gene Cernan, Harrison Schmitt, and Ronald Evans made their return journey more than half a century ago [2].

For comparison, the International Space Station orbits at roughly 250 miles above Earth's surface. The Artemis II crew is traveling more than 1,000 times farther from the planet than any human has ventured since 1972 [4].

The Crew: Veterans, a Rookie, and a Historic First

Three of the four Artemis II crew members are spaceflight veterans. Commander Reid Wiseman, a former NASA chief astronaut and U.S. Navy test pilot, previously spent 165 days on the ISS [5]. Pilot Victor Glover, a U.S. Navy captain, served as pilot on SpaceX's Crew-1 mission and spent six months aboard the station — making him the first Black astronaut to complete a long-duration ISS stay [5]. He will also become the first person of color to travel to the Moon [5]. Mission specialist Christina Koch holds the record for the longest single spaceflight by a woman at 328 days and participated in the first all-female spacewalk in 2019 [5].

The fourth seat belongs to Jeremy Hansen, a Canadian Space Agency astronaut and former CF-18 fighter pilot, who is making his first spaceflight [5]. Hansen is the first non-American to fly on a crewed lunar mission — a distinction that reflects Canada's contribution to the Artemis program. Canada committed to building the Canadarm3 robotic system for the planned lunar Gateway station, and Hansen's seat is, in practical terms, part of that bargain [6]. His inclusion also represents the first tangible crew-level outcome of the Artemis Accords, the set of bilateral agreements NASA has signed with more than 40 nations governing cooperative lunar exploration [6].

Hansen carried an Innu Nation flag aboard Orion, a gesture that drew attention in Canada and underscored the symbolic weight placed on the mission [7].

"I'm the Space Plumber"

The opening days of the mission were not without hiccups. Shortly after reaching orbit, Koch reported a toilet malfunction — a flight controller in Houston confirmed the system could not spin up [8]. Koch fixed the issue, which turned out to be a priming problem from the hardware sitting idle for an extended period, and declared herself "the space plumber" [8]. "It is probably the most important piece of equipment on board," she said [8].

More consequential was a pre-launch anomaly: engineers detected a temperature reading on one of two batteries in Orion's Launch Abort System that fell outside the expected range [9]. NASA concluded it was likely a sensor instrumentation issue, not a genuine hardware fault, and cleared the launch to proceed [9]. The launch team was also briefly "NO-GO" due to a flight termination system concern, which was subsequently resolved through a workaround verification procedure [9].

Once in orbit, the crew spent roughly 24 hours in a high Earth orbit conducting systems checks. Commander Wiseman described it as "24 hours of intense work" — a shakedown designed to stress-test Orion's life support, propulsion, navigation, and communications systems before committing to the trans-lunar injection (TLI) burn [10]. That burn, which fired the service module's main engine for 43 seconds, successfully pushed Orion out of Earth orbit on April 2 [10].

Technical Objectives: More Than a Photo Op

Artemis II is not a sightseeing trip, though it has produced spectacular imagery. The mission has specific technical goals that must be met before NASA can attempt a crewed lunar landing [3][10]:

• Communications testing: Validating Orion's deep-space communication links at distances where signal delay becomes meaningful.
• Life support verification: Running the Environmental Control and Life Support System (ECLSS) with a full crew of four — something that could not be tested on the uncrewed Artemis I mission in 2022.
• Proximity operations: After separating from the SLS upper stage, the crew took manual control of Orion, turned the spacecraft around, and performed a simulated docking approach with the Interim Cryogenic Propulsion Stage — rehearsing the kind of rendezvous maneuver needed for future missions to the lunar Gateway [3].
• Radiation monitoring: Measuring crew radiation exposure beyond Earth's magnetosphere, where galactic cosmic rays and solar energetic particles are unshielded [11].
• Navigation and trajectory burns: Performing perigee raise maneuvers and mid-course corrections to validate Orion's guidance systems [10].

No major system anomalies have been publicly reported since the TLI burn. NASA's daily press conferences through April 3 described all systems as nominal [10].

The Radiation Question

Beyond the Van Allen belts, astronauts lose the protective cocoon of Earth's magnetic field. The Artemis II crew is exposed to the full spectrum of deep-space radiation — galactic cosmic rays (GCRs, high-energy particles from outside the solar system) and solar energetic particles (SEPs, bursts of radiation from solar flares and coronal mass ejections) [11].

The mission coincides with the current solar maximum cycle (~2025–2026), which increases the probability of intense SEP events [11]. NASA and NOAA are monitoring the Sun around the clock, using tools including the Acute Radiation Risks Tool (ARRT) 2.0 to generate real-time dose predictions [12].

The expected radiation dose for the 10-day mission is modest — roughly equivalent to a whole-body CT scan, or about 5% of an astronaut's career limit [11]. That career limit, since 2022, is set at 600 millisieverts (mSv) for all astronauts regardless of sex or age [13].

This universal standard replaced a prior system, in place since 1989, that set career limits based on age and sex — ranging from 180 mSv for a 30-year-old woman to 700 mSv for a 60-year-old man [14]. Under those old rules, a female astronaut's career could be effectively cut short after just 43 days on the ISS, while a male astronaut could accumulate 211 days of equivalent exposure [14]. The 2021 National Academies report that endorsed the revised standard noted that it was calibrated to the risk profile of a 35-year-old female — meaning the new rule sets the same, more conservative threshold for everyone rather than allowing higher exposure for men [13][14].

For Artemis II specifically, the short mission duration means radiation exposure is unlikely to be a limiting factor for any crew member. Longer-duration lunar surface missions under Artemis III and beyond will face a different calculus.

The $55 Billion Infrastructure Behind One Flight

Artemis II did not cost $4 billion. It cost $55 billion — or more precisely, by the time the rocket left the pad, NASA had spent more than $55 billion on the three infrastructure pillars that made the flight possible: the Space Launch System, the Orion spacecraft, and the Exploration Ground Systems at Kennedy Space Center [15].

Source: NASA OIG Audit (2024)

Data as of Nov 1, 2024CSV

A 2024 NASA Office of Inspector General audit broke out cumulative spending through FY2025: approximately $23.8 billion on SLS, $20.5 billion on Orion (including its European Service Module, contributed by ESA at roughly $300 million per unit), and $7.5 billion on ground systems [15]. The OIG has projected a marginal cost of roughly $4.1 billion for each additional Artemis launch — $2.2 billion for a new SLS rocket (which is fully expendable), $1 billion for a new Orion capsule, and the remainder for ground operations [16].

With four astronauts aboard, that works out to roughly $1 billion per seat to fly around the Moon. By comparison, an Apollo mission seat cost approximately $1.8 billion in inflation-adjusted dollars, and a SpaceX Crew Dragon seat to the ISS costs about $55 million [16][17].

Source: NASA OIG / Analysis

Data as of Apr 1, 2026CSV

The comparison is not entirely apples-to-apples — Crew Dragon flies to low Earth orbit, not the Moon — but it illustrates the cost premium of NASA's approach. The OIG has repeatedly flagged the cost-plus contract structure governing SLS and Orion as a primary driver of overruns, noting that contractors are reimbursed for all expenses plus a profit fee regardless of whether costs exceed projections [16].

SLS vs. Starship: The Cost Debate

Critics of the Artemis architecture, including some within the aerospace policy community, argue that the SLS is a financially unsustainable vehicle that crowds out investment in more capable alternatives [17].

The numbers are stark. SLS can deliver approximately 27 metric tons to trans-lunar injection (TLI) in its Block 1 configuration. At $4.1 billion per flight, that translates to roughly $152,000 per kilogram to TLI [16][17]. SpaceX's Starship, which is fully reusable and currently in orbital testing, has a projected payload capacity to LEO of approximately 150 metric tons — nearly 30% more than SLS to orbit [17]. SpaceX has publicly claimed future per-launch costs as low as $2–3 million once the vehicle is mature, which would put the cost per kilogram in the range of $10–$200 depending on the destination and refueling requirements [17].

These projections remain unproven. Starship has not yet completed a full orbital mission with payload delivery, and the lunar variant (the Human Landing System, or HLS, selected by NASA for Artemis III and beyond) requires multiple orbital refueling flights that add complexity and cost [18]. NASA has not published an independent side-by-side cost-benefit analysis comparing the SLS-Orion architecture against a fully commercial alternative for crewed lunar missions. The Government Accountability Office and NASA OIG have both recommended such an analysis, but as of April 2026, none has been released [16].

Defenders of SLS point out that it is the only vehicle currently certified to carry humans beyond low Earth orbit, that it has now flown twice successfully (Artemis I uncrewed, Artemis II crewed), and that abandoning it mid-program would strand billions in sunk costs while introducing new schedule risk from unproven alternatives [18].

The Sliding Timeline to a Lunar Landing

When Vice President Mike Pence announced in March 2019 that NASA would return astronauts to the lunar surface by 2024, the target date was widely viewed as aspirational [19]. It has slipped every year since.

The original 2024 target moved to 2025, then 2026, then 2027. In February 2026, NASA Administrator Jared Isaacman confirmed that Artemis III — originally the first lunar landing mission — would instead fly in low Earth orbit in 2027 to rehearse rendezvous and docking procedures with commercial lunar landers [19]. The first crewed lunar landing is now assigned to Artemis IV, tentatively targeted for 2028 [19].

Source: NASA / GAO Reports

Data as of Apr 1, 2026CSV

Three factors could push that date past 2030:

1. Starship HLS readiness: The SpaceX-built Human Landing System must complete orbital refueling demonstrations and an uncrewed lunar landing before astronauts can use it. Delays in Starship's test program directly impact the Artemis landing timeline [19].
2. Spacesuit development: NASA contracted Axiom Space to develop new lunar EVA suits. Development and certification timelines remain tight, and any slippage affects landing-mission readiness [18].
3. Budget uncertainty: NASA's exploration budget faces annual appropriations pressure. The OIG has warned that sustained funding at current levels is necessary to hold even the 2028 date, and any significant cuts could force further delays [16].

The 2030 threshold matters because China's crewed lunar program — operating under the Chang'e project — is targeting a first human Moon landing by that year [20]. China has been developing the Mengzhou crewed spacecraft and the Long March 10 rocket for this purpose [20]. If NASA's timeline slips past 2030, the United States could lose what many in Congress frame as a "space race" — a framing that has been used to justify Artemis funding levels [20].

Academic and Public Interest

Scientific interest in crewed lunar exploration has tracked the Artemis program's development. Academic publications on lunar crewed spaceflight have risen sharply since 2019, peaking at 347 papers in 2025, according to OpenAlex data [21].

Source: OpenAlex

Data as of Jan 1, 2026CSV

The public response to Artemis II has been substantial. The crew's first transmissions from deep space — in which Wiseman told viewers "Trust us, you look amazing" and NASA released the Earth images with the caption "You look beautiful" — were carried live on major networks and generated widespread social media engagement [1][22].

What Comes Next

The Orion spacecraft is expected to reach its closest approach to the Moon within the next 24–48 hours, swing around the far side — where the crew will briefly lose communication with Earth — and begin the return journey. Splashdown in the Pacific Ocean is targeted for approximately April 11 [3][10].

If the mission succeeds, it will validate Orion's life support systems with a human crew, confirm the spacecraft's deep-space navigation capabilities, and clear the way for Artemis III. If any significant anomalies emerge during the lunar flyby or return, NASA will need to assess their impact on the broader Artemis timeline — a timeline that has already absorbed more than half a decade of delays and tens of billions of dollars in cost growth.

For now, four human beings are farther from Earth than anyone has been since Richard Nixon was president. The photographs they are sending back are striking. Whether the program that put them there can deliver on its larger ambitions — a sustained human presence on and around the Moon — remains an open and expensive question.