NASA Artemis 2 Mission 2026
On Wednesday, April 1, 2026, at 6:35 p.m. EDT, the United States put human beings on a path to the Moon for the first time in more than 53 years. NASA’s Artemis II mission lifted off from Launch Complex 39B at Kennedy Space Center in Florida, carrying four astronauts aboard the Orion spacecraft atop the Space Launch System (SLS) — the most powerful operational rocket on Earth — on a 10-day free-return lunar flyby. The mission is historic in ways that go far beyond the simple fact of returning humans to the vicinity of the Moon. It is the first crewed flight of both SLS and Orion, the first time human beings have travelled beyond low Earth orbit since Apollo 17 in December 1972, and the first mission in which a person of colour, a woman, and a non-American citizen have ventured into deep space. The crew — Commander Reid Wiseman, Pilot Victor Glover, Mission Specialist Christina Koch (all NASA), and Mission Specialist Jeremy Hansen (Canadian Space Agency) — named their Orion spacecraft “Integrity,” a word that captures the trust and integration of the 300,000+ individual components that went into building the vehicle and the hundreds of thousands of people across the US and internationally who built it.
Artemis II is not a Moon landing — that is the job of Artemis IV, targeted for 2028. What it is, in NASA Administrator Jared Isaacman’s words, is “the opening act.” Its primary objective is to confirm that the SLS rocket, Orion spacecraft, and the constellation of ground systems, life support technologies, and mission control infrastructure can safely support a human crew in deep space, paving the way for lunar surface operations. The mission follows the Artemis I uncrewed lunar flyby in November 2022, which proved the vehicles in space for the first time but left open critical questions about how the Orion heat shield performs with human occupants aboard — questions that changed the reentry profile for Artemis II and added months to the mission’s preparation timeline. As of today, April 2, 2026, the Artemis II crew is in Earth orbit, approximately 44,000 miles from Earth and completing early system checkouts before the trans-lunar injection burn that will send them toward the Moon. The splashdown in the Pacific Ocean off San Diego is planned for April 10, 2026 — exactly 10 days after launch.
Interesting Facts About NASA Artemis 2 Mission 2026
Before the detailed statistics, here are the most striking and verified facts about NASA’s Artemis II mission in 2026 — the numbers and milestones that put the full scale of this mission in perspective.
| # | Fact | Detail |
|---|---|---|
| 1 | Launch date and time | April 1, 2026 at 6:35 p.m. EDT — Kennedy Space Center, Florida |
| 2 | First crewed lunar mission since | Apollo 17 — December 1972 — a gap of more than 53 years |
| 3 | First crewed flight beyond low Earth orbit since | Apollo 17, 1972 — over half a century |
| 4 | Mission duration | 10 days — launch April 1 to splashdown April 10, 2026 |
| 5 | SLS rocket thrust at liftoff | 8.8 million pounds of thrust — 17% more than Apollo’s Saturn V |
| 6 | SLS height | 322 feet (98 m) tall — slightly shorter than Saturn V but heavier payload capacity |
| 7 | SLS liftoff weight | 5.75 million pounds (5.7 million pounds at liftoff) |
| 8 | SLS propellant loaded | More than 725,000 gallons of supercooled liquid hydrogen and liquid oxygen |
| 9 | Orion named by crew | “Integrity” — referencing the integration of 300,000+ components and the trust of the mission |
| 10 | Farthest distance from Earth (planned) | ~250,000–252,000 miles — about 4,700 miles beyond the Moon — breaking Apollo 13’s record of 248,655 miles |
| 11 | Reentry speed | ~25,000 mph (40,000 km/h) — the fastest atmospheric reentry ever by humans |
| 12 | Reentry heat | External temperatures up to 3,000 degrees Fahrenheit (1,650°C) |
| 13 | Previous human distance record | Apollo 13 — 248,655 miles from Earth (April 14, 1970) |
| 14 | Number of people in deep space record | 4 — breaking Apollo 8’s record of 3 people in deep space set in 1968 |
| 15 | Total Artemis programme cost (through 2025) | ~$93 billion — per NASA inspector general estimates cited by Bloomberg |
| 16 | Per-launch cost estimate | Over $4 billion per launch — per White House OMB and NASA OIG independent estimates |
| 17 | YouTube viewership at launch | Over 3 million viewers on NASA’s official YouTube streams alone at liftoff |
| 18 | Combined streaming milestone | Twitch + YouTube combined exceeded 1 million concurrent viewers 30 minutes before launch |
| 19 | Orion components | Over 300,000 individual components integrated into the spacecraft |
| 20 | Orion computing advantage over Apollo | ~75% lighter and 20,000 times faster than Apollo’s single flight computer |
Source: NASA official Artemis II page (nasa.gov), NASA Launch Day Live Blog (April 1, 2026), Wikipedia Artemis II (updated April 2, 2026), CBS News (April 1, 2026), NBC News (April 1, 2026), Live Science (April 1, 2026), Space.com (April 2, 2026), Astronomy.com guide, Business Today (April 2, 2026), Bloomberg (March 30, 2026), Streamer Guide, National Air and Space Museum (NASM)
Reading these facts together, what stands out most is how many superlatives converge on a single 10-day mission. The most powerful rocket in operation. The fastest human atmospheric reentry ever. The farthest distance from Earth any human crew has ever travelled. The first crewed deep-space flight in 53 years. Every one of these statements is true of Artemis II simultaneously, and that accumulation of firsts reflects how genuinely unprecedented this mission is in the arc of human spaceflight. The gap between Apollo 17 in December 1972 and Artemis II in April 2026 — 53 years and 4 months — is not just a number; it represents the longest stretch in human history during which no one ventured beyond the immediate vicinity of Earth after humans had first gone there. As NASA Chief Historian Brian Odom noted in CNN’s live coverage, getting back to this point required political will, commercial space industry development, and international partnerships all converging at once.
The $93 billion cumulative programme cost and the $4 billion+ per-launch estimate for SLS are the numbers that have attracted the most criticism of the Artemis programme — the Trump administration’s FY2026 budget proposal actually called for terminating SLS and Orion after Artemis III, describing SLS as “grossly expensive” and exceeding its budget by 140%. The 2025 One Big Beautiful Bill Act subsequently restored funding for Artemis IV and V. That political backdrop is the financial reality behind the mission happening at all today: it costs an enormous amount of money, and the debate about whether it is worth it — versus the alternatives of commercial rockets or different architectures — has never been fully resolved. But as of April 1, 2026, the SLS and Orion are in space with four human beings aboard, and that fact is difficult to argue with.
NASA Artemis 2 Launch Statistics 2026
| Launch Parameter | Data |
|---|---|
| Launch date | Wednesday, April 1, 2026 |
| Launch time (actual) | 6:35 p.m. EDT (22:35:12 UTC) |
| Launch window opened | 6:24 p.m. EDT |
| Launch window duration | 2 hours (6:24 – 8:24 p.m. EDT) |
| Backup launch windows | April 2–6, 2026 identified by NASA |
| Launch site | Launch Complex 39B (LC-39B), Kennedy Space Center, Florida |
| Weather forecast at launch | 90% favourable — partly sunny, high ~79°F |
| Countdown start | March 30, 2026 at 4:44 p.m. EDT |
| Crew arrival at KSC | March 27, 2026 |
| Crew entered quarantine | March 18, 2026 (Houston) |
| Second rollout to pad | March 20, 2026 (first was delayed by high winds) |
| Rollback to VAB (Feb 25) | Due to helium flow issue — delayed mission to April |
| Wet dress rehearsal 1 | February 2, 2026 — revealed liquid hydrogen leak; postponed to March |
| Wet dress rehearsal 2 | February 19, 2026 — successful |
| SLS stacking began | November 20, 2024 |
| SLS stacking completed | October 20, 2025 |
| First rollout to pad | January 18, 2026 |
| Crew named | April 3, 2023 — by NASA |
| Launch broadcast start | NASA+ and YouTube at 12:50 p.m. EDT; YouTube tanking coverage from 7:45 a.m. EDT |
Source: NASA Launch Day Blog (April 1, 2026), Wikipedia Artemis II, CBS News live updates (April 1, 2026), NBC News, Astronomy.com launch guide, Space.com live blog (April 2, 2026), Kennedy Space Center Visitor Complex
The road to April 1, 2026 was longer and more complicated than anyone originally planned. When NASA was doing preliminary design reviews in 2011, the launch date was placed “somewhere between 2019 and 2021.” By January 2024, it had shifted to September 2025. By December 2024, it had moved again to April 2026 — and even then, the actual launch window in April was only reached after two wet dress rehearsals, a helium flow issue that forced a full rollback to the Vehicle Assembly Building on February 25, a second rollout, and another multi-week wait for conditions to align. The liquid hydrogen leak during the February 2 wet dress rehearsal was the kind of setback that has plagued SLS development throughout its history — hydrogen is notoriously difficult to contain, and even small leaks during simulated countdowns require investigation and hardware remediation before any launch director will sign off. The fact that the February 19 wet dress rehearsal was successful and the subsequent rollout proceeded without a third major setback is what ultimately made April 1 possible.
The crew’s quarantine beginning on March 18 in Houston, followed by their arrival at Kennedy Space Center on March 27 and the countdown clock beginning on March 30, all unfolded in the compressed final-approach sequence that every crewed mission goes through — a choreography refined over sixty-plus years of human spaceflight to minimise the probability of health issues, late technical surprises, and schedule disruptions compromising the launch. Launch Director Charlie Blackwell-Thompson told reporters on March 30 that preparations had gone “extremely smooth” with only minor issues — which, in the context of everything that had gone before, felt like genuinely good news.
Artemis 2 Crew Statistics 2026
| Crew Member | Role | Nationality | Age | Previous Spaceflight | Historic Distinction |
|---|---|---|---|---|---|
| Reid Wiseman | Commander | American (NASA) | 50 | ISS Expedition 41 (165 days, 2014); 2 spacewalks | Commander of first crewed Artemis mission |
| Victor Glover | Pilot | American (NASA) | 49 | SpaceX Crew-1 / ISS Expedition 64 (168 days, 2020–21); 4 spacewalks | First person of colour to travel to the Moon’s vicinity |
| Christina Koch | Mission Specialist 1 | American (NASA) | 47 | ISS Expeditions 59–61 (328 days single-mission record for a woman); first all-female spacewalks | First woman to travel to the Moon’s vicinity |
| Jeremy Hansen | Mission Specialist 2 | Canadian (CSA) | 50 | First spaceflight | First non-American to travel to the Moon’s vicinity; first Canadian to go to the Moon |
Source: NASA Artemis II Crew Bios, NBC News crew profile (April 1, 2026), CBS News crew profile (April 1, 2026), ABC News (April 1, 2026), Wikipedia Artemis II, NASM What is Artemis II
The crew of Artemis II is extraordinary by any measure — and not primarily because of the diversity milestones, though those are genuine and significant. What makes this four-person team so well-qualified for the mission is the raw accumulation of spaceflight experience and technical depth they represent. Victor Glover has logged 168 days in orbit on the ISS, completed four spacewalks, and flew as pilot on the first operational SpaceX Crew Dragon flight. Christina Koch holds the women’s record for the longest single-mission stay in space at 328 days, participated in the first all-female spacewalks alongside Jessica Meir, and has the sustained microgravity exposure that makes deep-space physiological responses easier to monitor against a known baseline. Reid Wiseman brings 165 days of ISS experience, a 27-year Navy career as a test pilot, and the role of former NASA chief astronaut — meaning he has extensive familiarity with how NASA manages crewed missions from an institutional level, not just an operational one.
Jeremy Hansen is the only first-time flyer in the crew, but his credentials are equally formidable. A CF-18 fighter pilot and colonel in the Canadian Armed Forces, he has been training for NASA missions since being selected by the Canadian Space Agency in 2009, led a NASA astronaut class in 2017, and has contributed to systems development and astronaut training for over a decade. His seat aboard Artemis II was part of the 2020 Canada-US Artemis treaty that tied Canadian participation — specifically Canadarm3 for the future Lunar Gateway, now cancelled — to guaranteed crew berths. The crew’s mission patch, which styles “A II” to look like the word “All,” was deliberately designed to convey that this mission is not for four people but for everyone — a message that resonated in the over 3 million YouTube viewers who watched them launch.
SLS Rocket and Orion Spacecraft Statistics 2026
| Vehicle Parameter | Data |
|---|---|
| Rocket name | Space Launch System (SLS) Block 1 |
| SLS height | 322 feet (98 metres) |
| SLS liftoff weight | 5.75 million pounds (~2.6 million kg) |
| Total thrust at liftoff | 8.8 million pounds of thrust |
| Thrust comparison | 17% more powerful than Apollo’s Saturn V |
| Solid Rocket Boosters (SRBs) | 2 boosters — modified from Space Shuttle; each has 5 segments (vs Shuttle’s 4) |
| SRB contribution to liftoff thrust | More than 75% of total liftoff thrust |
| SRB burn duration | Approximately 2 minutes — separation at ~3,100 mph / altitude of ~30 miles |
| Core stage engines | 4 RS-25 engines (heritage Space Shuttle engines, upgraded) |
| Core stage thrust | ~2 million pounds of thrust for ~8 minutes of ascent |
| Propellant loaded | More than 725,000 gallons of liquid hydrogen and liquid oxygen |
| ICPS thrust | ~24,750 pounds — accelerates Orion to ~24,500 mph for orbit raise |
| SLS payload to Moon | 59,500 pounds (26,989 kg) — unique single-launch lunar capability |
| Orion crew module builder | Lockheed Martin |
| Orion European Service Module builder | ESA consortium led by Airbus |
| Orion service module main engine | 1 main engine + 8 auxiliary engines + 24 reaction control thrusters |
| Orion crew module thrusters | 12 reaction control thrusters |
| Orion solar arrays | 4 solar array wings — deployed successfully post-separation |
| Orion computing | ~75% lighter and 20,000 times faster than Apollo’s single computer |
| Orion internal cabling | Nearly 7 miles (11 km) of internal cable; 1,200+ sensors |
| Launch abort system thrust | 400,000 pounds of thrust — capable of pulling Orion clear in emergency |
| Heat shield | AVCOAT ablative material — reused from Artemis I; reentry profile modified to protect crew |
| Reentry heat (external) | Up to 3,000°F (1,650°C) |
| Parachute deployment | 8 parachutes at ~25,000 feet — slowing from 25,000 mph to ~17 mph for splashdown |
Source: NASA Artemis II official page, CBS News launch guide (April 1, 2026), Astronomy.com mission guide, Space Launch System Wikipedia, NBC News mission explainer, Scientific American Artemis II timeline, NASA Launch Day Blog
The Space Launch System is a vehicle born of political compromise and engineering heritage, and understanding those origins helps explain both its extraordinary capability and its extraordinary cost. The four RS-25 engines powering its core stage are heritage Space Shuttle main engines — some of the most reliable and well-understood rocket engines ever built, upgraded to produce slightly more thrust than their shuttle-era configuration. The two solid rocket boosters are also Space Shuttle-derived, modified to add a fifth segment that significantly increases their burn duration and thrust contribution. This heritage approach meant that much of the most difficult engine development had already been completed by the Shuttle programme, which was an advantage in terms of reliability but a disadvantage in terms of cost, since these components are expensive to manufacture and cannot be reused — each SLS launch consumes an entirely new set of engines and boosters.
The Orion spacecraft is a genuine engineering achievement, particularly in the sophistication of its avionics and life support. The 20,000-times speed advantage over Apollo computers is not just a fun statistic — it means that Orion can perform autonomous course corrections, manage complex multi-system operations, and adapt its trajectory in real time in ways that Apollo simply could not. The 1,200+ sensors spread across the spacecraft generate an enormous stream of telemetry data that mission controllers in Houston are continuously monitoring, and the four solar array wings that deployed successfully after separation provide the continuous power generation that makes longer missions — up to 21 days by design — possible without relying solely on finite propellant fuel cells. Apollo maxed out at about 14 days; Orion was designed to go further.
Artemis 2 Mission Trajectory Statistics 2026
| Trajectory Parameter | Data |
|---|---|
| Trajectory type | Free-return lunar flyby — no lunar orbit insertion |
| Total mission distance | ~685,000 miles (round trip) |
| Maximum distance from Earth | ~250,000–252,000 miles (~4,700 miles beyond Moon) |
| Previous human distance record | Apollo 13 — 248,655 miles (April 14, 1970) |
| Distance beyond previous record | ~1,345–3,345 miles farther than Apollo 13 |
| Closest approach to Moon | Day 6 — lunar flyby, crossing behind the far side |
| Earth orbits before TLI | 2 elliptical orbits (~23 hours), rising from low to high Earth orbit |
| Trans-Lunar Injection (TLI) burn | Day 2 — velocity boost of ~900 mph to escape Earth orbit |
| Coast time to Moon | ~4 days |
| Lunar flyby day | Day 6 (~April 6–7, 2026) |
| Far side communications blackout | Brief period during lunar far side pass |
| Return journey | ~4 days |
| Splashdown location | Pacific Ocean off San Diego, California |
| Planned splashdown date | April 10, 2026 |
| Recovery vessel type | US Navy San Antonio-class amphibious transport dock |
| Reentry speed | ~25,000 mph (40,000 km/h) — fastest human atmospheric reentry ever |
| Reentry angle | Steeper profile — modified from skip-reentry plan due to Artemis I heat shield findings |
| Mission elapsed time at liftoff naming | 22:35:12 UTC on April 1, 2026 |
Source: Wikipedia Artemis II, NASA.gov Artemis II page, National Air and Space Museum, Scientific American Artemis II Timeline, CBS News launch updates, Time magazine (April 1, 2026), Live Science records article (March 29, 2026)
The free-return trajectory is both Artemis II’s defining characteristic and its key safety feature. A free-return trajectory means that the laws of orbital mechanics — specifically the Moon’s gravity — will bend the spacecraft’s path back toward Earth even if the main engine completely fails to fire. Apollo 13 is the most famous example of this in action: when an oxygen tank explosion crippled the service module on April 13, 1970, mission controllers used the spacecraft’s free-return trajectory to guide the crew home without a functional main engine. Artemis II deliberately adopts the same trajectory design, not because engine failure is expected, but because the consequences of failure on the first crewed deep-space mission in 53 years require every possible safety margin. The irony is that this same trajectory pushes the crew farther from Earth than the more targeted Apollo landing trajectories did — which is why Artemis II will set the human distance record currently held by Apollo 13.
Day 6 of the mission — approximately April 7, 2026 — will be the day every person watching the mission from Earth should mark on their calendar. That is when the crew passes behind the Moon’s far side, briefly losing radio contact with Earth in a communications blackout that the Apollo crews experienced and the Artemis II crew will experience again. When they emerge from that blackout, they will have been farther from Earth than any human beings have ever been — and they will be carrying a camera pointed at the lunar surface, the sky, and the receding Earth. The crew has been specifically tasked with capturing new “Earthrise” images — photographs of our planet cresting above the lunar horizon, an image first captured by Apollo 8 astronaut Bill Anders in December 1968 and considered one of the most significant photographs in human history.
Artemis 2 Key Mission Milestones and Timeline 2026
| Day / Date | Mission Phase | Key Event |
|---|---|---|
| Launch — April 1 | Ascent | SLS lifts off at 6:35 p.m. EDT from LC-39B; booster sep at 2 min; core stage sep at ~8 min |
| Day 1 — April 1 | Earth Orbit | Orion in elliptical orbit; proximity ops demo with ICPS upper stage; solar arrays deployed |
| Day 2 — April 2 | TLI | Trans-Lunar Injection burn — Orion boosts to escape Earth orbit; sets course for Moon |
| Day 1 current status | In orbit | Orion at ~44,000 miles from Earth; crew awoken for perigee raise burn; toilet fan issue resolved |
| Days 3–5 | Outbound coast | Journey toward Moon; entering lunar sphere of influence on Day 5 |
| Day 6 — ~April 7 | Lunar flyby | Closest Moon approach; far side pass; farthest from Earth — record set; crew photographs Moon |
| Days 7–9 | Return | Orion leaves lunar sphere; two return trajectory correction burns |
| Day 10 — April 10 | Reentry & Splashdown | Reentry at ~25,000 mph; 8 parachutes deploy; Pacific Ocean splashdown off San Diego |
| Post-splashdown | Recovery | US Navy San Antonio-class ship retrieves crew and Orion capsule |
Source: NASA.gov Artemis II mission page, National Air and Space Museum, Scientific American, CBS News (April 1–2, 2026), CNN live updates (April 2, 2026), Wikipedia Artemis II
The Artemis II mission timeline is structured around a series of make-or-break moments, each of which confirms or complicates the next phase of the journey. The proximity operations demonstration on Day 1 — in which Pilot Victor Glover manually flew Orion around the spent ICPS upper stage — is already complete and confirmed successful as of April 2. Glover’s famous radio call from orbit — “I see it. Look at that, woohoo! I see the ICPS and the moon in the field of view” — captured both the pilot’s technical confirmation and the human emotion of the moment. That proximity ops demonstration is not just a spectacular visual; it is a critical test of Orion’s propulsion and navigation systems that will directly inform future docking operations with lunar landers.
The Trans-Lunar Injection burn on Day 2 is arguably the single most important engine firing of the mission — the moment when Orion commits to leaving Earth orbit and beginning the four-day coast to the Moon. NASA calculated a velocity boost of approximately 900 mph is needed to push Orion from its high elliptical Earth orbit onto the free-return lunar trajectory, and that burn is expected to be monitored by millions of people around the world via NASA’s live YouTube stream. After TLI, the mission enters a quieter phase: coasting, system checks, crew rest cycles, science observations. Then comes Day 6 and the lunar far side — the climax of the entire 10-day journey, when four human beings will find themselves farther from home than any of their species has ever been, with nothing but a 7-mile tangle of cables, 1,200 sensors, and the laws of orbital mechanics standing between them and the void of deep space.
Artemis Programme Context Statistics 2026
| Programme Parameter | Data |
|---|---|
| Programme name | Artemis — named after the Greek goddess of the Moon (twin of Apollo) |
| Formally established | 2017 — Space Policy Directive 1 (Trump administration) |
| Overseeing agency | NASA — National Aeronautics and Space Administration |
| Total programme cost (through 2025) | ~$93 billion — NASA Inspector General estimate cited by Bloomberg |
| SLS per-launch cost | $4 billion+ — per White House OMB and NASA OIG independent estimates |
| SLS budget overrun | 140% over original budget (Trump FY2026 budget proposal language) |
| Potential savings from alternatives | $879 million if transitioned to commercial systems (Trump FY2026 budget proposal) |
| Artemis I | Uncrewed lunar flyby — November 2022 — successful; Orion heat shield issue identified |
| Artemis II | Crewed lunar flyby — April 1, 2026 — launched successfully; in progress |
| Artemis III | Crewed LEO rendezvous test (revised plan — not a lunar landing) — targeted 2027 |
| Artemis IV | First crewed lunar landing (revised assignment) — targeted early 2028 |
| Lunar Gateway | Cancelled — March 2026 |
| Moon base goal | 2030s — permanent base as stepping stone to Mars |
| China Moon landing target | 2030 — competitor timeline Artemis is racing |
| SLS manufacturer (core stage) | Boeing |
| Orion spacecraft manufacturer | Lockheed Martin |
| Artemis Accords signatories | Multiple international partners bound by the Accords framework |
| Artemis II launch cadence goal | NASA targeting once every 10–12 months for future missions |
Source: Wikipedia Artemis Programme, Space Launch System Wikipedia, Bloomberg (March 30, 2026), Business Today (April 2, 2026), Sky & Telescope (April 1, 2026), CBS News, NASA.gov
The Artemis programme has been one of the most expensive and contested space exploration efforts in US history, and the political circumstances surrounding Artemis II’s launch in 2026 underscore those tensions rather than resolving them. The Trump administration’s FY2026 budget proposal explicitly called for ending SLS and Orion after Artemis III — describing the rocket as “grossly expensive” — only for Congress to override that with the One Big Beautiful Bill Act that funded Artemis IV and V. NASA Administrator Jared Isaacman, a former SpaceX commercial astronaut appointed by the Trump administration, has navigated this tension by simultaneously acknowledging the cost issues and defending the mission’s irreplaceable near-term value. “This first mission is extremely challenging,” he told CBS News the day before launch. “These astronauts are going to go farther from Earth than any humans have ever been before, potentially faster than any humans have ever been before.”
The cancellation of the Lunar Gateway in March 2026 is perhaps the most significant recent structural change to the Artemis programme’s long-term architecture. The Gateway — a planned space station in lunar orbit that would have served as a waypoint and habitat for deep-space operations — was the original centrepiece of NASA’s human return to the Moon, and its removal simplifies the near-term mission sequence but raises questions about long-term lunar presence. The revised mission plan, announced by Isaacman on February 27, 2026, makes Artemis III a test of commercial lunar landers in low Earth orbit rather than a lunar landing attempt, and assigns the first crewed landing to Artemis IV in early 2028. That 2028 target remains NASA’s stated goal — and the timeline that Artemis II’s success or failure most directly influences.
Artemis 2 Records Being Set in 2026
| Record | Previous Record / Holder | Artemis II Expected Achievement |
|---|---|---|
| Farthest human distance from Earth | Apollo 13 — 248,655 miles (1970) | ~250,000–252,000 miles — ~1,345–3,345 miles farther |
| Fastest human atmospheric reentry | Apollo 10 — ~24,791 mph (1969) | ~25,000 mph — slightly faster |
| Most people in deep space simultaneously | Apollo 8 — 3 people (1968) | 4 people — Artemis II crew |
| First woman to reach Moon’s vicinity | None | Christina Koch — Mission Specialist 1 |
| First person of colour at Moon’s vicinity | None | Victor Glover — Pilot |
| First non-American at Moon’s vicinity | None | Jeremy Hansen — Canadian Space Agency |
| First non-American beyond low Earth orbit | None | Jeremy Hansen — first Canadian in deep space |
| First crewed deep-space flight since | Apollo 17 (December 1972) | April 1, 2026 — 53+ year gap ended |
| First crewed SLS flight | N/A (Artemis I was uncrewed) | Artemis II — April 1, 2026 |
| First crewed Orion flight | N/A (Artemis I was uncrewed) | Artemis II — April 1, 2026 |
Source: Wikipedia Artemis II, Live Science records article (March 29, 2026), Time magazine (April 1, 2026), CBS News, NBC News, National Air and Space Museum
The records Artemis II is setting are not asterisks or participation trophies — they are genuine human spaceflight firsts that will stand in the history books alongside the milestones of the Mercury, Gemini, and Apollo programmes. The farthest human distance record, currently held by the crew of the Apollo 13 disaster since 1970, will fall on Day 6 of the mission when Orion passes behind the Moon’s far side. It is a measure of how far back the crewed space programme retreated after Apollo — and how long it took to build the political will and technical capability to push beyond that mark again — that the record stood untouched for 56 years before Artemis II broke it.
Christina Koch and Victor Glover are breaking records that should have been broken decades ago, and the fact that they are doing so now reflects the long overdue diversification of NASA’s astronaut selection and assignment processes. Koch’s previous 328-day ISS mission already broke the women’s single-mission endurance record; now she extends her legacy by becoming the first woman to reach the Moon’s neighbourhood. Glover’s trajectory from Pomona, California to a Navy test pilot career to the International Space Station to the first crewed Artemis mission represents the kind of story that NASA programme managers will be pointing to for decades as they try to recruit the next generation of engineers, pilots, and scientists from every background imaginable.
Disclaimer: The data research report we present here is based on information found from various sources. We are not liable for any financial loss, errors, or damages of any kind that may result from the use of the information herein. We acknowledge that though we try to report accurately, we cannot verify the absolute facts of everything that has been represented.
