Overview:
A recent PwC market assessment projects that the emerging lunar economy could generate up to US$127 billion in revenue by 2050. Achieving this relies on a massive shift from government-led science missions to a sustainable commercial ecosystem, underpinned by heavy investments across five foundational infrastructure pillars: mobility, communication, habitation, energy, and water.
A market assessment released in January from PwC projects that lunar surface activities will transition from isolated scientific missions to a sustained commercial ecosystem over the next quarter-century.
According to the Building the Lunar Economy: Sectorial Forecasts and Market Opportunity report, this transition will require synchronized development across five foundational infrastructure pillars: mobility, communication, habitation, energy, and water.
As noted in the report’s foreword, “Space exploration is entering a new era; one defined not only by scientific discovery but by the emergence of sustainable economic ecosystems beyond Earth”.
Economic forecasts and the logistics bottleneck
PwC models the financial trajectory of the lunar market from 2026 to 2050, forecasting cumulative infrastructure investments between US$72.7 billion and US$88.5 billion. During this same period, the aggregation of revenue streams across the five core sectors is projected to generate between US$93.9 billion and US$127.3 billion.
In the near term, the economic viability of lunar operations remains heavily constrained by the logistics of Earth-to-Moon transport. Between 2026 and 2035, transportation is expected to account for 70% to 80% of all infrastructure costs. However, the report indicates this burden will decrease to between 50% and 60% by the 2046–2050 period. This reduction is anticipated to be driven by the deployment of highly reusable launch vehicles and significant advancements in local resource extraction.
PwC reached its conclusions by employing a scenario-driven forecasting approach grounded in publicly available data, expert interviews, and planned mission architectures.
Mobility: The shift to service models
The report outlines a progressive evolution in lunar surface mobility. Early phases will rely on small, unpressurized rovers weighing only a few kilograms for exploration and relay tasks. This architecture will eventually scale up to large, pressurized “mobile bases” weighing several tons by the 2030s and 2040s.
Canada is already positioning itself within this evolving mobility framework. While the Canadian Space Agency (CSA) recently had to terminate its near-term robotic Lunar Rover Mission amid federal budget cuts, it is instead betting on heavier mobility infrastructure. The CSA has issued a request for proposals to mature complementary technologies for a multi-tonne Lunar Utility Vehicle targeted for the mid-2030s, with companies like Canadensys Aerospace, MDA Space, and Mission Control working on concept designs to support operations at the lunar south pole.
Commercially, procurement methods are expected to change. The sector is projected to shift toward a “moon-rover-as-a-service” business model rather than utilizing traditional cost-plus hardware contracts. NASA’s projected demand, highlighted by a US$4.6 billion Lunar Terrain Vehicle (LTV) services contract, serves as an early indicator of this transition.
Communication and data infrastructure
Establishing a sustained surface presence requires a robust, multilayered communication network. The report outlines an architecture relying on lunar relay satellites to serve as the backbone for Earth-Moon transmissions, eventually incorporating Ka-band and optical communication capabilities.
On the surface, dish antennas and local base stations will handle direct-to-Earth links and intra-base connectivity for rovers and astronauts. Crucially, the deployment of lunar data centres equipped with edge computing capabilities will be required to process information locally, reducing transmission loads and enabling real-time operational analysis. Investments in this sector are expected to heavily front-load the launch of relay satellites before shifting toward surface infrastructure and data centres in the 2030s.
Resource Utilization and Energy Infrastructure
To achieve long-term sustainability, the report emphasizes that the lunar economy must reduce its reliance on Earth-based supply chains through In-Situ Resource Utilization (ISRU).
The thermal mining of lunar water ice is positioned as a foundational capability. While high-efficiency Environmental Control and Life Support Systems (ECLSS) will recycle 95% to 98% of water used for human life support, the vast majority of extracted water will be electrolyzed to produce liquid oxygen (LOX) and liquid hydrogen (LH₂) for rocket propellant. Localizing propellant production is expected to drastically reduce the payload mass required for cislunar and Mars-bound missions.
Power generation presents another infrastructure hurdle. Early missions will rely on solar arrays and batteries, but these systems cannot independently sustain operations through the extreme two-week lunar night. The report identifies small nuclear reactors as essential for providing continuous power to habitats and industrial ISRU facilities. This power will be distributed via standardized lunar microgrids utilizing the Universal Modular Interface Converter (UMIC).
Here, the one Canadian company sees a strategic opening. Toronto-based Canadian Strategic Missions Corporation (CSMC), recently secured a federal grant to develop an in-factory manufacturing cell for its LEUNR (Low Enriched Uranium Nuclear Reactor) microreactors. Based on legacy Canadian SLOWPOKE technology, these scalable microreactors are being advanced for remote terrestrial deployments, but hold direct promise for the off-world power requirements emphasized in the PwC report.
Furthermore, future habitation modules will utilize automated 3D printing technologies to mitigate the high costs of importing building materials. These systems will use local lunar regolith to construct primary structural components, such as walls and ceilings.
Earth benefits and regulatory hurdles
The development of lunar infrastructure is also expected to yield terrestrial benefits. Technologies engineered to survive the Moon’s harsh environment—like autonomous robotics and advanced water recycling—have direct applications on Earth. The report also highlights the potential of extracting Helium-3 from lunar regolith. Much discussed for several decades, this resource could support global clean nuclear fusion energy and decarbonization efforts.
Despite these technological and economic pathways, the report cautions that the pace of development will be heavily influenced by international policy. “Regulatory clarity and international collaboration are critical not only to unlock private investment and ensure interoperability across lunar infrastructure, but also to deliver broader societal benefits,” the authors note. Current legal frameworks regarding resource use and property rights are deemed insufficient to support large-scale private capital deployment.
If this assessment holds true, it could provide the economic basis—along with commercial activity in low Earth orbit (LEO)—to lay the groundwork for the push out to Mars and beyond.