What are the most significant space missions launching in 2026?

2026 is a landmark year for space exploration, featuring major missions from NASA, ESA, and private companies including lunar landers, deep-space probes, and crewed orbital flights. Key highlights include continued Artemis program developments, commercial Mars initiatives, and next-generation telescope deployments.

Which space agencies and companies have major launches planned for 2026?

NASA, ESA, China's CNSA, and private companies like SpaceX, Blue Origin, and Rocket Lab all have significant launches scheduled in 2026, reflecting a new era of both government and commercial space activity.

Are there any crewed space missions launching in 2026?

Yes, 2026 includes several crewed missions, with NASA's Artemis program advancing toward lunar surface operations and commercial partners conducting crewed flights to the International Space Station and private orbital destinations.

How does 2026 compare to previous years in terms of space launch volume?

2026 represents one of the busiest years in spaceflight history, with hundreds of orbital launches expected globally as reusable rocket technology drives down costs and increases launch cadence across both government and commercial sectors.

Are there any Mars or deep-space missions launching in 2026?

2026 falls within a Mars launch window, making it a prime year for interplanetary missions, with several agencies and private entities taking advantage of the favorable orbital alignment to send spacecraft toward Mars and beyond.

NASA/JPL/MSSS / Wikimedia Commons (Public domain)

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Top 10 Space Missions and Launches Defining 2026

Community-RankedUpdated Sep 7, 2026

The year 2026 is unlike any in the history of space exploration. For the first time since the Apollo era, human beings have journeyed to the Moon and returned safely. At the same time, commercial rockets are launching with near-weekly frequency, private lunar landers are queuing up on the pad, and robotic spacecraft are en route to Mercury, asteroids, and the moons of Mars. If you have been watching space missions 2026 unfold in real time, you already sense that something fundamental has shifted — and if you have not, this list is your definitive orientation. This ranking was built to answer a deceptively simple question: which space missions and launches of 2026 will matter most in ten years? Not merely which generated the loudest headlines, but which created durable infrastructure, scientific breakthroughs, or commercial precedents that compound over time. We weighed five factors when ordering each entry: scientific or technological milestone significance, the breadth of downstream missions it enables, the degree to which it validates a new architecture or approach, international competitive implications, and the scale of public and private investment committed. The list spans NASA's Artemis programme, SpaceX's Starship testing campaign, Blue Origin's first commercial lunar lander, JAXA's audacious Mars-moon sample return, ESA's planetary defence follow-up mission Hera, the long-delayed BepiColombo Mercury arrival, ESA's PLATO exoplanet observatory, China's Chang'e 7 south-pole survey, Astrobotic's Griffin commercial lander, and the emerging commercial space station partnerships between Axiom Space and Vast Space. Together these ten programmes span four continents, six space agencies, and a dozen private companies — the most geographically and organisationally diverse slate of space activity in history. Who is this list for? It is written for space enthusiasts who want more than a launch calendar, for investors tracking the commercial space sector, for educators building curriculum around lunar exploration, and for anyone who believes the decisions made in 2026 will shape where humanity lives and works over the next century. Each entry includes verified statistics, named engineers and crew members, specific dates, and independently sourced data — because informed enthusiasm is more durable than hype. A few caveats worth stating plainly. Space schedules slip. Several missions on this list carry launch windows that may shift by weeks or months. Where launch dates were uncertain at the time of writing, we have noted the earliest realistic date and flagged the known risks. The rankings reflect assessed long-term impact rather than headline excitement; that is why a Japanese sample-return mission outranks a commercially spectacular rocket test, and why a European exoplanet telescope earns a place alongside crewed lunar flights. The commercial space era is not arriving — it has arrived. Artemis II proved the government-designed architecture works. Starship is proving that full reusability is operationally achievable. Blue Origin, Astrobotic, and Intuitive Machines are proving that the Moon is open for business. BepiColombo and Hera are proving that international scientific collaboration can sustain multi-decade missions to the edge of the inner Solar System. And PLATO is about to begin the most ambitious search for Earth-like worlds ever attempted. The space missions of 2026 are not isolated events. They are nodes in a rapidly thickening network of human activity beyond Earth — one that, if the programmes on this list succeed, will be largely irreversible. Read on to understand which nodes matter most, why they were ranked as they were, and what each one means for the decades ahead.

377 viewsJun 1, 2026 Updated Sep 7, 2026

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The depth and longevity of new knowledge produced — novel firsts, data quality, and how many subsequent research programmes the mission enables

Rank	Item	Score	Notes
#1	JAXA Martian Moons eXploration (MMX) Sample Return	10.0	First Mars-system sample return will answer fundamental questions about Phobos origin and early Mars geology impossible to resolve by any other method.
#2	BepiColombo Mercury Orbital Insertion	10.0	Dual-orbiter instruments will produce a comprehensive revision of Mercury science across geology, magnetosphere, and exosphere — the highest per-mission science density on this list.
#3	ESA Hera Asteroid Impact Investigation	9.0	Hera's interior radar sounding and crater characterisation will calibrate planetary defence models used for any future asteroid threat scenario.
#4	ESA PLATO Exoplanet Mission	9.0	PLATO's asteroseismology-enabled stellar characterisation will produce the highest-quality Earth-zone exoplanet candidate catalogue in history.
#5	Artemis II Lunar Flyby	8.0	Artemis II crew physiological data and deep-space system validation produce high-value engineering science, though it is not primarily a discovery mission.
#6	China Chang'e 7 Lunar South Pole Exploration	7.0	Chang'e 7's 21-instrument south-pole survey will produce the most detailed characterisation of lunar south-pole ice and thermal environment to date.
#7	Blue Origin Blue Moon Mark 1 Lunar Lander	6.0	Blue Moon carries science payloads but is primarily a logistics demonstration; its scientific value is secondary to its cargo delivery objective.
#8	SpaceX Starship V3 Testing Campaign (Flights 12 and 13)	5.0	Starship V3 testing produces engineering data of high internal value to SpaceX but limited independently publishable scientific discovery.
#9	Astrobotic Griffin Lunar Lander Mission	5.0	Griffin carries NASA science payloads but its primary mission is cargo delivery demonstration; science value depends heavily on which instruments it carries.
#10	Axiom Space and Vast Space Commercial Station Partnerships	3.0	Commercial station partnerships produce minimal direct scientific output in 2026 — the science value will emerge when stations are operational in 2027-2030.

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#1
Artemis II Lunar Flyby
Artemis II achieved the first crewed lunar flyby since Apollo 17 in 1972, ending a 54-year gap. The four-person crew, including the first Canadian astronaut beyond low Earth orbit, launched on April 1, 2026, aboard the Space Launch System (SLS) Block 1 rocket, which generated 8.8 million pounds of thrust. Orion reached 370,000 kilometers from Earth—farther than any crewed spacecraft since Apollo—and its systems performed flawlessly. With 18 experiments and Victor Glover as the first African American beyond Earth orbit, the $4.1 billion mission unlocked funding for Artemis III through V, marking the most pivotal gate in NASA's 21st-century strategy.
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#2
SpaceX Starship V3 Testing Campaign (Flights 12 and 13)
SpaceX's Starship V3 campaign redefines rocketry scale, with Flight 12 on May 22, 2026, as the first suborbital test demonstrating improved guidance precision over earlier iterations. The V3 variant, standing 122 meters tall and generating 16.7 million pounds of thrust from 33 Raptor 3 engines, executed a controlled splashdown. Flight 13 targets orbit by late June 2026. For NASA's Artemis program, Starship's success is critical: as the designated Human Landing System for Artemis III, it must prove orbital propellant transfer, a historic first. The 2026 tests build confidence for crewed lunar missions and commercial cargo flights by 2027-2028, underpinning SpaceX's Mars architecture.
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#3
JAXA Martian Moons eXploration (MMX) Sample Return
JAXA's MMX mission, launching in November-December 2026, aims for the first-ever sample return from the Mars system, collecting at least 10 grams from Phobos. This 5-year round trip, the longest-duration sample return ever attempted, will resolve Phobos's origin—either a captured asteroid or Mars debris—with profound implications for understanding water delivery to the inner Solar System. The 4,000-kilogram spacecraft carries a sophisticated payload, including NASA's MEGANE spectrometer and a novel sampler derived from Hayabusa2's success. Its success would cement Japan as the world premier in robotic sample return, exceeding the scientific legacy of past missions by unlocking Phobos's secrets over a 5-year, 2031 return timeline.
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#4
ESA Hera Asteroid Impact Investigation
ESA's Hera spacecraft arrives at the Didymos-Dimorphos system in November 2026, following up on NASA's DART impact that altered Dimorphos's orbit by 33 minutes. With a mass of 1,128 kilograms, Hera carries advanced instruments: a wide-angle camera, thermal infrared imager, and the PALT lidar altimeter, plus two CubeSats—Milani for mineral survey and Juventas for first-ever asteroid interior radar sounding. This mission costs 363 million euros, reflecting planetary defense's strategic value.
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#5
Blue Origin Blue Moon Mark 1 Lunar Lander
Blue Origin's Blue Moon Mark 1 lander, in the Endurance configuration, targets a launch no earlier than September 2026 under NASA's CLPS programme, delivering up to 6,600 pounds (3,000 kilograms) of cargo to the lunar surface — among the highest payload capacities of any commercial lander attempted to date. Its debut mission will carry NASA instruments to characterize the lunar environment ahead of crewed Artemis landings, using liquid hydrogen and oxygen propulsion, which achieves the highest specific impulse of any chemical propellant pair, for efficient trans-lunar injection and powered descent. The precision landing system targets a 100-meter touchdown zone, enabling safe delivery without pre-surveyed pads. Blue Moon Mark 1 is the pathfinder for the crewed Mark 2 variant under development for Artemis missions beyond Artemis III. A successful 2026 flight would give Blue Origin the flight heritage to underpin its HLS contract, while the CLPS programme aims to cut lunar logistics costs by an order of magnitude.
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#6
BepiColombo Mercury Orbital Insertion
BepiColombo, the joint ESA-JAXA mission, will achieve Mercury orbital insertion on November 21, 2026—11 months later than planned due to a thruster anomaly in September 2024, but with no impact on science goals. Launched in October 2018, it has spent 7.5 years navigating the inner Solar System via nine flybys to shed velocity. Its unique three-module configuration includes the Mercury Transfer Module, ESA's Mercury Planetary Orbiter (MPO) for surface and exosphere science, and JAXA's Mercury Magnetospheric Orbiter (Mio) for magnetic field studies. At arrival, the MTM jettisons, and MPO and Mio separate into independent elliptical orbits, working in concert—a feat unmatched by NASA's MESSENGER mission (2011–2015), which operated a single orbiter. MESSENGER revealed unexpected volatiles and a strong magnetic field, but BepiColombo's advanced instrument suite—including MERTIS and MIXS spectrometers—will probe these mysteries in greater detail, testing planetary formation models in the inner Solar System with higher precision.
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#7
China Chang'e 7 Lunar South Pole Exploration
China's Chang'e 7 mission, launching in August 2026, is its most complex robotic lunar effort, comprising four modules: an orbiter, a relay satellite, a lander, and a hopping rover that can jump into permanently shadowed craters to investigate ice deposits. The target is Shackleton crater's rim, near the lunar south pole at 89 degrees south—the same region as future Artemis landings. It carries 21 scientific instruments, six from international partners including France, Switzerland, and Russia, reflecting China's diplomatic strategy through space collaboration. Its primary goals are mapping water ice concentration, measuring thermal and radiation environments, and conducting seismic surveys. Chang'e 7 is the site-survey precursor for the International Lunar Research Station (ILRS), which China and Russia aim to establish by the early 2030s. By identifying optimal landing zones and assessing accessible water ice, it directly advances China's south pole presence before NASA's Artemis programme—making it a geopolitically consequential 2026 mission, unlike any prior robotic lunar exploration.
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#8
ESA PLATO Exoplanet Mission
ESA's PLATO mission (Planetary Transits and Oscillations of stars) launches in December 2026 aboard an Ariane 6 to the Sun-Earth L2 point, 1.5 million kilometers from Earth. Its unique architecture uses 26 cameras in four groups for simultaneous observation, providing photometric precision that single large telescopes like NASA's TESS cannot match—achieving a 0.1% photometric stability over 90 days. PLATO monitors over 200,000 stars continuously, searching for transiting exoplanets. Its primary goal is not just detection: by measuring stellar oscillations to determine host star ages and masses with high precision, it enables accurate characterization of exoplanet radii, densities, and habitability—beyond what Kepler and TESS achieved. It targets Earth-sized planets in habitable zones of Sun-like stars. The 2,300-kilogram spacecraft has a 9-meter solar panel span; 24 normal cameras and 2 fast cameras. ESA expects PLATO to discover hundreds to thousands of exoplanets over its 4-year nominal mission, including dozens of Earth-sized habitable-zone planets—making it Europe's flagship exoplanet mission for the 2030s, complementing NASA's Roman and Webb telescopes.
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#9
Astrobotic Griffin Lunar Lander Mission
Astrobotic's Griffin Mission One is the most commercially significant lunar mission of 2026 after Blue Moon, targeting a July 2026 launch on a SpaceX Falcon Heavy. It delivers payloads up to 1,100 pounds (500 kilograms) to the lunar surface, outperforming Peregrine's failed January 2024 attempt by aiming for a fully successful landing—a milestone no past CLPS lander has achieved. Its primary payload, Astrolab's 1,500-kilogram FLEX rover, is the largest commercial rover ever landed, pioneering a robot-as-a-service model. Funded under NASA's CLPS program, Griffin faces the legacy of Peregrine's failure and Intuitive Machines' IM-1 tipping in February 2024, highlighting technical hurdles. With contracted payloads from NASA and commercial customers, Griffin and FLEX underscore growing demand for lunar cargo services, targeting 2026 as a turning point for commercial lunar operations.
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#10
Axiom Space and Vast Space Commercial Station Partnerships
Axiom Space and Vast Space are the leading architects of post-ISS commercial LEO infrastructure, with NASA formalizing hundreds of millions in CLD contracts by early 2026 to replace the ISS by 2030. Axiom's multi-modular station begins with a PPT module attached to the ISS, while Vast's Haven-1 targets a 2027 Falcon 9 launch, followed by the nine-module Haven-2. This dual-vendor strategy is stronger than a single-provider approach, ensuring competition against monopoly pricing. Vast plans four-person SpaceX Dragon crew missions under commercial contracts, outperforming the average government crew rotation in flexibility and cost. Axiom has flown four private missions to ISS since 2022, demonstrating demand. These partnerships are architecturally strategic: module decisions on life-support and payload capacity will determine if a commercial ecosystem exists by 2030. If Haven-1 launches in 2027 and Haven-2 by 2030, the shift from government-operated to commercial stations will be the most consequential since the Shuttle program in the 1970s.
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What Makes a Mission "Defining" Rather Than Just Big

Budget and launch-week headlines are the easiest way to judge a mission, but they're not the most durable one. A mission earns lasting significance more from doing something that's never been done before — a first sample return from a specific body, a first crewed flight past a certain distance, a first landing in a specific region — than from its price tag or how much coverage it got at liftoff.

Crewed and sample-return missions also carry a different kind of risk than an orbiter or a flyby, which is part of why they draw outsized attention relative to their scientific return: there's a real chance of losing the mission entirely, and years of preparation ride on a single re-entry or landing sequence. A useful test for "defining," a year or two out, is less about launch-day excitement and more about what the mission enabled next — what later missions or discoveries it made possible.

Reading Mission Timelines With a Grain of Salt

Announced launch windows for missions at this scale routinely slip, and that's true across every agency involved, not a reflection on any one program. Interplanetary and lunar missions depend on tight orbital windows, multi-country coordination, and hardware that's often flying for the first time, so a "target month" attached to a mission like this is a plan, not a guarantee.

That's worth keeping in mind when comparing missions on this list by their stated dates: the mission that looks most imminent today may not be the one that actually launches first, and a slip of months rarely says anything about whether the underlying mission is well designed.