Skip to content
Review

A Smarter Path to Mars: A Conceptual Framework for Human-AI Teamwork in Surface Exploration

2026 · American Journal of Student Research · pp. 269-282 · 0 citations

TL;DR

The proposed concept adds engineering soundness by mapping Mars hazards to decision-support functions, defining human-authority requirements, identifying safety and planetary-protection guardrails, and laying out a staged validation pathway from concept review to tabletop exercises, analog missions, digital twins, and eventually certified operational systems.

Abstract

Future human missions to Mars will place astronauts in a world that is scientifically rich but physically unforgiving. The Martian surface has a thin atmosphere, extreme temperature swings, dust activity, radiation exposure, delayed communication with Earth, limited resupply, and full dependence on engineered life-support systems. These conditions make Mars exploration a safety-critical, distributed teamwork problem rather than a simple task-planning problem. This article develops a conceptual framework for human-artificial intelligence (AI) teamwork in Mars surface exploration. No detailed mathematical model is proposed, no AI system is trained, no operational performance is claimed, and no crewed test has been performed. Instead, the contribution is a research-grounded engineering concept organized around Figure 1, in which mission readiness, in-mission support, human review, spacecraft and habitat architecture, and data-to-value feedback form a closed safety loop. The framework argues that AI should not replace astronauts or mission-control teams; rather, AI should act as a safety translator that turns environmental data, system telemetry, robot reports, and science priorities into explainable options for human approval. The proposed concept adds engineering soundness by mapping Mars hazards to decision-support functions, defining human-authority requirements, identifying safety and planetary-protection guardrails, and laying out a staged validation pathway from concept review to tabletop exercises, analog missions, digital twins, and eventually certified operational systems. The central message is that the smartest path to Mars is neither full automation nor unaided human courage, but disciplined human-AI-robot teamwork that helps explorers remain safe, aware, ethical, and scientifically productive.

View source

Similar papers

Review Open access Aug 2026

Embodied Intelligence for Safer Power-System Field Operations: A Critical Review of Technologies, Applications, and Challenges

Modern power grids require safer and more reliable field operations, yet conventional robots often face limitations in unstructured environments because of rigid pre-programming and weak perception–action coupling. This review examines Embodied Intelligence (EI) as an emerging direction for enhancing power-system field...

Yuxin Wen, Peixiao Fan, Zhiyu Mao et al. · 0 citations
Conference Open access Jul 2026

International Space Station as a Testbed for Exploration Environmental Control and Life Support Systems – 2026 Status

Human exploration missions beyond low earth orbit, such as NASA’s Artemis Program, present significant challenges to spacecraft system design and supportability. A particularly challenging area is the Environmental Control and Life Support System (ECLSS) that maintains a habitable and life-sustaining environment for cr...

Christopher A. Brown, K. Toon, David M. Hornyak et al. · 0 citations
Conference Open access Jul 2026

Transforming Mission Control into an Agentic Workflow for Future xEVA

The results demonstrate the feasibility of transforming centralized ground support into a resilient, autonomous partner capable of safeguarding crew during high-latency planetary exploration.

Kaisheng Li, R. Whittle · 0 citations
Conference Open access Jul 2026

Enabling Autonomous Space Exploration: Feasibility and Design of a Lunar Robotic Laboratory

Future Lunar and Martian exploration missions heavily rely on the ability to deploy advanced robotic infrastructures capable of operating fully autonomously in extreme planetary environments. Building such high-value, autonomous scientific and logistical capabilities is essential for supporting planetary science, mappi...

Antoine Marin, G. Collange, Grégory Navarro · 0 citations
2026

Digital Twins and Modelling for Spacecraft Science Operations: Application to Surface Interaction and Sampling on Small Solar-System Bodies

Abstract. The increasing number of space exploration missions presents a novel challenge with regards to planning and operations. Current architectures are composed of distinct teams and models performing separate tasks like navigation, planning, and science, which can lead to inefficiencies and delays. This work propo...

Iosto Fodde · 0 citations

We use cookies to run the site and, with your consent, for analytics and to show ads. See our Cookie Policy.