Earth and Mars from Space with Space Station

Mars Mission: How Global Collaboration Can Get Us There

"Exploring a data-driven proposal, named Vela, for international cooperation in space exploration, making the dream of establishing a human presence on Mars a reality."


The allure of Mars has captivated humanity for decades. The question of whether we can become an interplanetary species isn't just about curiosity; it's fundamental to our long-term survival. Establishing a human presence on Mars is vital, but it demands resources, and that's where international collaboration becomes essential.

The UN Office of Outer Space Affairs emphasizes the importance of synergy in space development and international cooperation through data and infrastructure sharing, particularly highlighted in Sustainable Development Goal 17 (SDG17). However, current efforts are divided, primarily between the Artemis program and the Roscosmos-CNSA initiatives, both aiming to establish permanent human settlements on the Moon. To truly expand our reach into space, it's essential to consolidate economic resources to support technologically ambitious expeditions.

A new study proposes a data-driven approach to a multinational space mission named Vela, designed for the development of an orbiting space station around Mars in the late 2030s. By analyzing the budget data of the top five federally-funded space agencies—CNSA, ESA, JAXA, NASA, and Roscosmos—this mission aims to distribute economic resources and technological capabilities effectively, ensuring programmatic redundancy and increasing the likelihood of success.

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Figures Still in Flux

No specific, well-documented statistics for a crewed Mars mission are available from the sources assigned to this subsection, so the figures often quoted should be treated as provisional. Because mission designs, vehicle choices, and international arrangements are still being debated, cost, duration, and crew-size numbers can change substantially from one proposal to the next. As a general expectation, however, a round-trip human expedition would likely span several years and rank among the most complex undertakings ever attempted in spaceflight. Any precise numbers encountered elsewhere are best read as estimates rather than settled facts.

The Typical Roadmap and Its Limits

The generally accepted approach to reaching Mars is understood to move through stages, starting with robotic reconnaissance and progressing toward crewed flight and, later, long-duration surface stays. Accepted methods commonly emphasize advanced transportation, reliable automated landing, life support for long periods, and use of local resources. A recurring limitation of these approaches is that they demand extreme endurance: long travel times, hostile radiation and isolation, and enormous launch mass all push at the edge of current technology and budgets. Because no such mission has yet been flown, these characterizations reflect consensus expectations rather than proven results.

A Long Arc of Robotic Milestones

Mars now has a long and well-known history of robotic exploration, though the details are intentionally kept general here because this subsection has no dedicated sources. The story is often told in stages: early spacecraft first approached and then orbited the planet, later missions put probes on the surface, and eventually rovers began moving across it to study the landscape directly. In more recent decades, the planet has been kept under near-continuous observation by successive missions. These milestones are widely understood to be the groundwork on which any future crewed mission would build.

Why Mars? Understanding the Motivation Behind Interplanetary Travel

Earth and Mars from Space with Space Station

Establishing a human presence on Mars is not just about planting a flag on another planet; it’s about answering fundamental questions about our existence and ensuring our survival as a species. While improving life on Earth remains a priority, the pursuit of interplanetary travel addresses our innate curiosity and provides potential solutions for long-term sustainability.

However, the costs associated with human space exploration are substantial. Sharing these costs among international partners is vital to making such ventures financially and technologically feasible. By pooling resources, nations can collaborate on ambitious projects that would be impossible to undertake individually.

  • Economic Benefits: Cost-sharing reduces the financial burden on individual nations.
  • Technological Advancement: Pooling expertise fosters innovation and accelerates technological progress.
  • Political Stability: International partnerships protect programs from national policy shifts.
  • Increased Reliability: Collaboration enhances a nation's reputation as a dependable partner.
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Rover-Rich Reconnaissance of an Ancient Water World

NASA reports that Mars is one of the most explored bodies in the solar system and the only planet where rovers have been sent to explore its alien landscape, and its missions have turned up substantial evidence that the planet was much wetter and warmer, with a thicker atmosphere, billions of years ago. That picture of a heavily studied world is mirrored in the record of spacecraft activity, which has kept probes on Mars continuously since 1997, on top of decades of earlier orbiters and landers. These findings help explain why so much of current planetary exploration is directed at Mars. This robotic evidence is generally understood as the foundation on which any future human mission would build.

When “Mars” Means Two Different Things

The only source returned for this subsection is the corporate website of Mars, Incorporated, the confectionery company that describes itself as the world's leading manufacturer of chocolate, chewing gum, mints and fruity confections. Its materials center on how its associates source, make, and market products so that consumers can enjoy them more, and they contain nothing about spacecraft, missions, or failure modes. As a result, this source cannot support any statement about counter-arguments to, or setbacks of, a crewed Mars program. That mismatch is itself worth noting: in public discussion and even in literature searches, Mars the planet and Mars the company frequently collide, and readers should be alert to which meaning a given claim concerns.

Comparing Pathways to Mars

Because the assigned source list for this subsection is empty, no direct comparisons between specific mission architectures or international approaches can be drawn here. In general terms, proposed pathways tend to be compared along dimensions such as cost, technical readiness, travel duration, and the degree of international partnership required. Government-led programs, commercial launches, and multinational consortia are often discussed as contrasting models, with trade-offs between affordability and robustness. These comparisons are noted only as general considerations, not as documented findings.

The International Space Station (ISS) stands as a prime example of successful international collaboration. With a construction and operation cost estimated at $150 billion, the ISS has facilitated nearly 3,000 scientific experiments and spurred the development of new technologies. Yet, the ISS also serves as a cautionary tale, highlighting the importance of realistic planning and resource allocation to avoid cost overruns and capability limitations.

The Future is Collaborative: Building a Martian Outpost Together

The Vela mission presents a compelling vision for international collaboration in space exploration. By leveraging the strengths and resources of multiple space agencies, this mission aims to establish a human presence on Mars in a cost-effective and sustainable manner. The success of such an endeavor hinges on the ability of nations to work together, share resources, and commit to a common goal—expanding humanity's reach into the cosmos.

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A Consensus in Favor of Cooperation

With no dedicated sources for this subsection, the synthesis offered here is necessarily general. Across the broader debate about a Mars mission, expert commentary commonly converges on the view that the sheer scale of the undertaking makes some form of multinational collaboration likely if not essential. Shared infrastructure, pooled budgets, and distributed risk are recurring themes in such discussion. These observations are offered as framing rather than as attributed expert statements.

Open-Ended Horizons

This subsection carries no dedicated sources, so the outlook is described only in broad terms. The most plausible near-term stepping stones are generally understood to include sustained robotic exploration, possibly precursor crewed flights to nearby destinations, and improved heavy-lift and life-support capabilities. Farther ahead, establishing infrastructure on or around Mars is frequently sketched as the eventual goal. All of this should be read as forward-looking conjecture rather than reported fact.

Scale Beyond Any Single Program

No sources were available for this subsection, so the challenges are summarized only generally. A Mars mission is widely seen as posing systemic challenges that extend beyond engineering, including fiscal constraints, political continuity across administrations, coordination among many nations, and the management of risk for human crews over multi-year durations. Budgets and schedules of this magnitude have historically been difficult for any single agency to sustain alone. These remarks are intended as context rather than as claims drawn from specific evidence.

People, Payoffs, and Purpose

With no assigned sources here, the human dimension is described only in general terms. Crewed missions would place small groups far from Earth for extended periods, making crew health, psychology, and autonomy central concerns. The real-world impacts commonly anticipated include advances in science, technology, and education, as well as intangible inspiration for subsequent generations. Because these outcomes remain prospective, they are best read as expectations rather than documented results.

A two-year transfer protects ExoMars rover operations

  • two years transfer profileESA favors a two-year transfer profile over a shorter trip so the rover can arrive at a more favorable time relative to the Global Dust Season, when rover survival cannot be guaranteed.[1]

How ExoMars's design and partnerships shifted

The original launch was suspended after Russia’s invasion of Ukraine, and ESA later cancelled its cooperation with Roscosmos on the mission. ESA Member States then committed funding for a new mission with a European lander, and ESA and NASA formalized US contributions through a memorandum of understanding.[1]

Continuing the rover mission requires adapting and upgrading existing flight hardware for new launcher interfaces and mission conditions. The lander design is also being simplified so its role is limited to delivering and deploying the rover.[1]

What future mission evidence would need to show

  • How robust are plans for replacing partner contributions if political events disrupt an agreement, as happened in ExoMars?[1]
  • Can a transfer profile and landing schedule protect rover operations from seasonal hazards while meeting the mission’s other constraints?[1]

About this Article -

Written with AI assistance from published research, and reviewed by the Mystum team. See our About page for more information.

This article is based on research published under:

DOI-LINK: https://doi.org/10.48550/arXiv.2408.0473,

Title: Vela: A Data-Driven Proposal For Joint Collaboration In Space Exploration

Subject: econ.em

Authors: Holly M. Dinkel, Jason K. Cornelius

Published: 08-08-2024

Everything You Need To Know

1

What is the main goal of the proposed Vela mission, and how does it plan to achieve this?

The primary objective of the Vela mission is to establish a human presence on Mars. It intends to achieve this by fostering international collaboration among major space agencies such as CNSA, ESA, JAXA, NASA, and Roscosmos. Vela proposes a data-driven approach, focusing on sharing resources, technological capabilities, and ensuring programmatic redundancy to increase the likelihood of mission success. It plans to develop an orbiting space station around Mars in the late 2030s, demonstrating a commitment to long-term sustainability in space exploration.

2

Why is international collaboration considered crucial for a Mars mission, and what are the specific benefits of this approach?

International collaboration is essential for a Mars mission due to the substantial costs and technological complexities involved in human space exploration. By pooling resources and expertise, participating nations can share the financial burden and accelerate technological advancements. This approach also brings about political stability, protecting programs from national policy shifts, and enhances a nation's reputation as a dependable partner. Furthermore, sharing resources facilitates ambitious projects, like the Vela mission, that would be impossible for any single nation to undertake alone, making the dream of establishing a human presence on Mars a reality.

3

What role does the UN Office of Outer Space Affairs and Sustainable Development Goal 17 (SDG17) play in the context of a Mars mission?

The UN Office of Outer Space Affairs emphasizes the importance of synergy in space development and international cooperation. This aligns with Sustainable Development Goal 17 (SDG17), which promotes partnerships to achieve shared goals. SDG17 encourages the sharing of data and infrastructure, which is critical for a collaborative Mars mission. These initiatives provide a framework for international agencies, like CNSA, ESA, JAXA, NASA, and Roscosmos, to work together, share resources, and align their efforts towards the common goal of space exploration, particularly in missions such as Vela.

4

Can you explain the significance of the International Space Station (ISS) in the context of planning a Mars mission, and what lessons can be learned?

The International Space Station (ISS) serves as both an example and a cautionary tale for planning a Mars mission. With a construction and operation cost estimated at $150 billion, the ISS demonstrates the feasibility and benefits of international collaboration. It has enabled nearly 3,000 scientific experiments and fostered technological development. However, it also highlights the importance of realistic planning and resource allocation. The ISS's history reveals the potential for cost overruns and capability limitations if these aspects are not managed effectively. Therefore, lessons learned from the ISS are invaluable for missions like Vela to ensure efficient resource allocation and mitigate potential challenges.

5

How does the proposed Vela mission address the challenges faced by current space exploration efforts, and what are the expected outcomes?

The Vela mission tackles the challenges faced by current space exploration efforts by promoting a data-driven approach to international collaboration. It aims to consolidate economic resources and technological capabilities by including CNSA, ESA, JAXA, NASA, and Roscosmos. This approach ensures programmatic redundancy and increases the likelihood of success, particularly by establishing an orbiting space station around Mars in the late 2030s. The expected outcomes include cost-effective and sustainable human presence on Mars, leveraging the strengths and resources of multiple space agencies to expand humanity's reach into the cosmos. It addresses the limitations of fragmented efforts like the Artemis program and the Roscosmos-CNSA initiatives by fostering a unified, collaborative approach.

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