Space Mining Market Size and Share
Space Mining Market Analysis by Mordor Intelligence
The space mining market size is estimated at USD 2.58 billion in 2025 and is forecasted to expand to USD 39.02 billion by 2040, reflecting a 19.51% CAGR. Robust growth is encouraged by sharply falling launch costs enabled by reusable rockets, rising shortages of critical minerals on Earth, and multibillion-dollar government programs that treat off-planet resources as strategic assets. A steady shift from pure research missions to early-stage extraction trials widens the commercial funnel. At the same time, improved in-situ resource utilization (ISRU) technologies shorten payback horizons for capital-intensive projects. Policy clarity under the Artemis Accords and compatible national regulations further reduces investor uncertainty, supporting the next wave of private-sector participation.[1]Source: SpaceX, “Starship Program Overview,” spacex.com
Key Report Takeaways
- By application, 3D printing led the space mining market with 42.50% of the share in 2024, whereas construction applications are projected to grow at a 26.40% CAGR through 2040.
- By resource type, water and volatiles accounted for 47.92% of the space mining market size in 2024, while rare-earth and platinum group metals are set to post a 24.04% CAGR to 2040.
- By extraction target body, near-Earth asteroids held 53.20% of the space mining market share in 2024; lunar regolith is anticipated to advance at a 27.40% CAGR through 2040.
- By mission phase, spacecraft design and engineering represented 45.4% of the space mining market size in 2024, whereas mining operations and logistics are forecasted to register a 25.65% CAGR to 2040.
- By geography, North America dominated with 36.45% revenue share in 2024, while Asia-Pacific is poised for the highest regional CAGR of 24.10% through 2040.
Global Space Mining Market Trends and Insights
Drivers Impact Analysis
Driver | (~) % Impact on CAGR Forecast | Geographic Relevance | Impact Timeline |
---|---|---|---|
Rapid decline in launch costs | 6.8% | Global, led by North America | Short term (≤ 2 years) |
Rising demand for PGMs and rare-earths in clean tech | 4.2% | Global, concentrated in Asia-Pacific and North America | Medium term (2-4 years) |
Government ISRU funding and Artemis Accords | 3.9% | North America, Europe, Asia-Pacific | Medium term (2-4 years) |
Expansion of private ride-share launch services | 2.7% | Global, spill-over from North America | Short term (≤ 2 years) |
Micro-gravity additive manufacturing adoption | 1.8% | North America and EU, early adoption in Japan | Long term (≥ 4 years) |
Emerging off-earth ESG/carbon-credit schemes | 0.7% | Global, regulatory framework dependent | Long term (≥ 4 years) |
Source: Mordor Intelligence
Rapid Decline in Launch Costs
Reusable heavy-lift vehicles have cut average orbital launch prices by more than 60% since 2020, with leading systems targeting costs near USD 100 per kg for high-flight-rate scenarios. These economics move high-value asteroid mining missions from theoretical models to credible business cases, particularly for platinum group metal retrieval. The lower threshold attracts smaller operators that previously relied on ride-shares, spurring competition and additional price declines. National space agencies benefit by shifting fixed-price contracts to commercial providers, redirecting public funds toward lunar infrastructure and ISRU demonstrations. The resulting demand flywheel reinforces the growth trajectory of the space mining market.
Rising Demand for PGMs and Rare-Earths in Clean Tech
Fuel-cell vehicles, electrolyzers, and high-capacity batteries require substantial volumes of irreplaceable metals. Forecast supply gaps for platinum group metals exceed 500,000 oz annually through 2028, while rare-earth requirements may quadruple by 2050 to meet global climate goals.[2]Source: World Platinum Investment Council, “Platinum Quarterly Q1 2025,” platinuminvestment.com Terrestrial production remains geographically concentrated and vulnerable to geopolitical friction, exposing manufacturers to price spikes and supply interruptions. Celestial metal deposits offer a diversification path that could relieve tightness in terrestrial markets and stabilize input costs for clean-tech manufacturers. Early-stage off-planet sourcing aligns with corporate sustainability mandates by lowering land-based ecological footprints.
Government ISRU Funding and Artemis Accords
NASA’s Multimission ISRU program earmarks over USD 1.5 billion for technology maturation, and allied agencies in Europe and Japan have instituted comparable grant structures. The Artemis Accords, now endorsed by more than fifty nations, clarify that resource extraction does not equate to territorial claims, reducing legal ambiguity for private licensees. Cooperative projects such as the LunaNet communication network and the ESA Moonlight initiative supply essential shared infrastructure, lowering duplicative capital outlays for commercial miners. Government demand for propellant, structural alloys, and life-support consumables provides captive off-take agreements, anchoring revenue projections for early entrants.
Expansion of Private Ride-Share Launch Services
Small-sat launchers have proliferated, offering flexible booking windows for prospecting probes and sensor payloads. Modular bus architectures allow multiple mining startups to co-manifest cubesats that map mineralogical signatures of sequential asteroids on a single launch. This approach spreads fixed transport costs across participants, compressing unit economics. The ride-share model also shortens development cycles by enabling annual or semi-annual launch opportunities, compared with the historical three-year gaps on government rockets. Fast iteration accelerates technology learning curves and data acquisition, both of which feed positively into the scaling logic of the space mining market.
Restraints Impact Analysis
Restraint | (~) % Impact on CAGR Forecast | Geographic Relevance | Impact Timeline |
---|---|---|---|
Extremely high CAPEX and technology risk | -4.1% | Global, acute in emerging markets | Medium term (2-4 years) |
Uncertain legal and regulatory framework | -2.3% | Global, particularly non-Artemis signatories | Long term (≥ 4 years) |
Commodity-price volatility and ROI risk | -1.9% | Global, commodity-dependent regions | Short term (≤ 2 years) |
Space-debris collision hazards | -1.2% | Global, concentrated in LEO operations | Medium term (2-4 years) |
Source: Mordor Intelligence
Extremely High CAPEX and Technology Risk
Complex thermal, mechanical, and robotic challenges raise mission budgets into the hundreds of millions of dollars, with cash flows delayed until resources are processed and transported. Engineering unknowns in abrasive regolith environments or low-gravity asteroid fields create binary success-failure outcomes, increasing the cost of capital. Insurance premiums for deep-space assets remain elevated, and conventional project-finance structures seldom accommodate multi-year, non-revenue periods. Investors, therefore, demand hybrid equity-grant models or government milestone payments that dilute overall returns, tempering the pace at which the space mining market can scale.[3]Source: US Congressional Research Service, “Commercial Space Resource Extraction,” crsreports.congress.gov
Space-Debris Collision Hazards
Orbital density has risen sharply, and conjunction warnings for large constellations now number in the tens of thousands each month. Mining missions often involve bulky processing modules that remain in predictable orbits for extended periods, heightening collision probability. A single high-energy impact can create cascades that threaten both commercial and scientific assets. Operators must integrate autonomous avoidance systems and carry additional propellant reserves, increasing mass and cost. Global coordination on traffic management is improving, yet persistent debris risks still constrain insurance underwriting and impose operational inefficiencies on the space mining market.
Segment Analysis
By Application: Manufacturing Imperatives Steer Early Demand
3D printing corresponds to 42.50% of the space mining market size for applications. This dominance stems from the immediate value of on-orbit manufacturing, which reduces the need to loft bulky spare parts from Earth. Using local feedstock for structure repair and tool fabrication lowers logistics costs and supports rapid mission turnaround. Construction applications carry the fastest-growing outlook at a 26.40% CAGR. Emerging concepts for inflatable habitats reinforced with in-situ metal frameworks underpin this momentum by demonstrating cost-effective lunar base rollout. Human-life-support systems form a third pillar, drawing specialized attention to water recycling and oxygen generation units that depend on reliably mined volatiles. Fuel-refueling services show steady progress, leveraging cryogenic depots that build a closed-loop trade between resource nodes and transportation corridors. Collectively, these threads reinforce the core premise that the space mining market supplies the material backbone of sustainable off-planet economies.
Follow-on growth hinges on integrating additive manufacturing tool chains and autonomous excavation platforms. Machine-learning algorithms improve sintering accuracy in microgravity, while metal-polymer composite techniques widen the list of usable feedstocks. Demonstrations aboard the International Space Station validate print quality, accelerating acceptance in crewed missions beyond low-Earth orbit. Regulatory agencies have begun codifying part-qualification standards, giving operators confidence to deploy printed components in load-bearing roles. As infrastructure scales, the application mix within the space mining market will likely shift toward higher-end fabrication, such as pressure vessels and radiation-shielding panels, further boosting demand for refined metals and ceramic precursors.
Note: Segment shares of all individual segments available upon report purchase
By Resource Type: Water Remains the Near-Term Linchpin
Water and volatile compounds hold 47.92% of the 2024 revenue. Their primacy reflects universal utility as a drinkable fluid, a radiation shield, and an electrolysis feedstock for hydrogen-oxygen propellant. Permanently shadowed lunar craters host ice reserves reachable by hopping landers, offering early cash flow before complex metal refineries come online. Rare-earth elements and platinum group metals hold the highest upside at a 24.04% CAGR owing to clean-energy supply pressures. Sample-return missions have confirmed palladium, iridium, and neodymium traces in M-type asteroids, validating resource models. Structural metals such as aluminum and titanium trail in gross margins but fill essential construction demand, especially as molten-regolith electrolysis achieves pilot-plant status.
Technology maturation is steadily translating orbital assays into reserve classifications akin to terrestrial JORC or NI-43-101 standards. Spectroscopy combined with neutron-gamma loggers provides real-time grade control, trimming exploration risk. Simultaneously, improved high-vacuum furnaces now approach 85% metal recovery factors using only solar power concentrators, reducing energy imports. This convergence tightens the cost curve and supports a diversified resource slate, ensuring that the space mining market is not overly reliant on a single commodity cycle.
By Extraction Target Body: Accessibility Guides Initial Commercial Waves
Near-Earth asteroids account for 53.20% of the total revenue. Delta-V requirements below 5 km/s enable round-trip missions within three years, a timetable attractive to venture backers. The relative abundance of metallic M-type targets within those orbital windows adds economic appeal. Lunar regolith is projected to expand at a 27.40% CAGR as joint agency-commercial ventures establish scalable polar landing pads. Main-belt asteroids and Martian moons remain at the concept stage, reflecting flight times beyond current funding appetites.
Mission planners increasingly adopt a portfolio approach whereby lunar sorties validate excavation hardware, building confidence before dispatching similar payloads to higher-value but farther asteroids. Shared avionics and propulsion modules lower non-recurring engineering costs, smoothing learning curves. The pattern underscores a strategic sequencing that balances near-term revenue with long-term resource abundance, critical for the enduring allure of the space mining market.

Note: Segment shares of all individual segments available upon report purchase
By Mission Phase: Development Investment Shifts Toward Execution
Spacecraft design and engineering hold the billion in 2024, or 45.40% of spending. Custom thermal control, anchoring drills, and regolith handling systems dominate procurement lists, reflecting the novelty of mining in vacuum and microgravity. As prototypes exit test bays, spending naturally migrates to mining operations and logistics, which are forecast to grow at 25.65% annually to 2040 on the back of maiden extraction contracts. Launch support services absorb residual demand, buoyed by continuing price erosion and a healthy manifest of prospecting cubesats.
This phase rotation reveals an inflection in capital deployment from laboratory experimentation to field execution. Integration of fault-tolerant autonomy is a notable enabler, reducing crewed oversight and freeing bandwidth for simultaneous multi-asteroid campaigns. Consequently, the space mining market is edging from speculative narratives toward tangible cash flows, reinforcing confidence in its long-range financial feasibility.
Geography Analysis
North America retained the top position, holding 36.45% of global revenue. Federal procurement of lunar propellant and export-credit support for private landers underpins this lead. The Commercial Space Launch Competitiveness Act ensures that mined resources are recognized as private property, giving entrepreneurs legal certainty. Flagship Artemis missions serve as anchor tenants for propellant and construction feedstock, while a deep venture-capital ecosystem funds hardware spin-offs ranging from regolith conveyors to vacuum metallurgy units.
Asia-Pacific is projected to deliver the fastest regional CAGR of 24.10% through 2040. China’s interagency program pairs university-led technology clusters with full-spectrum state contracts covering prospecting, excavation, and sample analysis. The launch of a multifunctional asteroid-and-lunar mining robot in March 2025 validated indigenous anchoring mechanisms suited for microgravity. Japan’s USD 6.4 billion Space Strategy Fund channels subsidies into ISRU robotics, while India’s next phase of Chandrayaan leverages its low-cost launch niche to piggyback prospecting payloads.
Europe benefits from ESA’s cohesive regulatory environment, which streamlines cross-border procurement. The Moonlight initiative envisions a secure satellite network offering private miners standardized navigation and communication services. Cooperative participation in the NASA-led Gateway will grant European firms preferential slots for delivering construction materials. Countries in the Middle East and Latin America are exploring sovereign wealth investments and bilateral partnerships to secure the supply of helium-3 and strategic metals, suggesting broader geographical diversification for the space mining market by decade’s end.

Competitive Landscape
The competitive field remains moderately concentrated. AstroForge leads the early commercial wave after closing USD 55 million in cumulative funding to develop metallic-asteroid missions scheduled for 2026. Interlune focuses on helium-3 extraction and relies heavily on AI-enabled isotope modeling to shorten exploration cycles. ispace, headquartered in Japan with European subsidiaries, is a lunar surface logistics specialist, offering scheduled rides for small payloads and sample-return services.
Strategic collaborations outweigh direct rivalries because each company targets a distinct resource-body combination. AstroForge has partnered with propulsion suppliers to secure dedicated tug capacity, whereas Karman+ and Starpath share risk by pooling launch slots for water-prospecting cubesats. Large aerospace primes such as Northrop Grumman or Airbus provide systems-engineering expertise in exchange for early access to regolith-derived metals that can lower costs in satellite bus production.
Technological differentiation centers on autonomous navigation, thermal-vacuum excavation, and in-situ processing. Fleet Space’s joint venture to integrate quantum sensors into asteroid survey swarms exemplifies the push toward higher-resolution resource mapping. As knowledge spillovers accelerate, barriers to entry shift from raw engineering to integrated supply-chain ownership. This indicates that the next growth phase of the space mining market will favor vertically aligned players capable of refining, storing, and delivering commodities to multiple customer classes.
Space Mining Industry Leaders
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Moon Express
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Off-World, Inc.
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Asteroid Mining Corporation
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AstroForge
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ispace, Inc.
- *Disclaimer: Major Players sorted in no particular order

Recent Industry Developments
- March 2025: The China University of Mining and Technology revealed a six-legged space-mining robot designed for lunar and asteroid anchoring tests in simulated low-gravity environments.
- February 2025: Karman+ closed a USD 20 million Series A round to develop autonomous water-extraction spacecraft, with a maiden flight planned for 2027.
Global Space Mining Market Report Scope
Space mining is the exploitation of materials from the moon, other planets in the solar system, their satellites' asteroids, and near-Earth objects. The market demand has been estimated based on firm investments and revenues.
The surveillance radar market is segmented by geography. The report covers the market sizes and forecasts for the Space mining market in major countries across different regions.
For each segment, the market size is provided in terms of value (USD).
By Application | Extraterrestrial Commodity | |||
Construction | ||||
Human Life Sustainability | ||||
Fuel Mining | ||||
3D Printing | ||||
By Resource Type | Water and Volatiles | |||
Rare-Earth and Platinum Group Metals | ||||
Structural Elements | ||||
By Extraction Target Body | Near-Earth Asteroids (NEAs) | |||
Main-Belt Asteroids | ||||
Lunar Regolith | ||||
Mars Moons (Phobos, Deimos) | ||||
By Mission Phase | Spacecraft Design and Engineering | |||
Launch Services | ||||
Mining Operations and Logistics | ||||
By Geography | North America | United States | ||
Canada | ||||
Mexico | ||||
Europe | Germany | |||
United Kingdom | ||||
France | ||||
Russia | ||||
Rest of Europe | ||||
Asia-Pacific | China | |||
Japan | ||||
India | ||||
Australia | ||||
Rest of Asia-Pacific | ||||
South America | Brazil | |||
Rest of South America | ||||
Middle East and Africa | Middle East | United Arab Emirates | ||
Saudi Arabia | ||||
Rest of Middle East | ||||
Africa | South Africa | |||
Rest of Africa |
Extraterrestrial Commodity |
Construction |
Human Life Sustainability |
Fuel Mining |
3D Printing |
Water and Volatiles |
Rare-Earth and Platinum Group Metals |
Structural Elements |
Near-Earth Asteroids (NEAs) |
Main-Belt Asteroids |
Lunar Regolith |
Mars Moons (Phobos, Deimos) |
Spacecraft Design and Engineering |
Launch Services |
Mining Operations and Logistics |
North America | United States | ||
Canada | |||
Mexico | |||
Europe | Germany | ||
United Kingdom | |||
France | |||
Russia | |||
Rest of Europe | |||
Asia-Pacific | China | ||
Japan | |||
India | |||
Australia | |||
Rest of Asia-Pacific | |||
South America | Brazil | ||
Rest of South America | |||
Middle East and Africa | Middle East | United Arab Emirates | |
Saudi Arabia | |||
Rest of Middle East | |||
Africa | South Africa | ||
Rest of Africa |
Key Questions Answered in the Report
What is the current size of the space mining market?
The space mining market was valued at USD 2.58 billion in 2025 and is projected to reach USD 6.29 billion by 2040, reflecting a 19.51% CAGR.
Which application holds the largest share of the space mining market?
3D printing leads all applications, accounting for 42.50% of revenue in 2024 owing to its role in on-orbit manufacturing.
Why is water extraction so important for early missions?
Water serves as life-support consumable, radiation shield, and feedstock for hydrogen-oxygen propellant, making it the most immediately useful resource for sustaining deep-space operations.
Which region is growing the fastest in space mining?
Asia-Pacific is expected to record a 24.10% CAGR to 2040, driven by Chinese, Japanese, and Indian lunar and asteroid programs.
What are the main challenges facing commercial space mining?
Capital intensity, technological risk, and space-debris collision hazards remain the primary obstacles that companies must mitigate through advanced engineering and robust regulatory cooperation.
How soon could commercial extraction missions become profitabl
Models suggest that high-value platinum group metal missions to accessible near-Earth asteroids could achieve positive cash flow within three to five years after launch, assuming continued launch-cost declines and favorable commodity prices.
Page last updated on: July 3, 2025