Finding Solutions Among the Stars: Space’s Role in Innovative Solutions for Primary Care

INTRODUCTION

Primary care or family medicine, is facing a global crisis. With escalating workloads and patient needs, complexity of care, and increasing physician burnout, there is a need for innovative solutions to tackle this crisis. Space medicine, driven by deep space missions such as NASA’s Artemis program, China’s lunar exploration program, along with initiatives and partnerships with the European Space Agency, Canadian Space Agency (CSA), and other nations hoping to expand or initiate their human space missions. This new direction of space exploration focusing on deep space missions requires innovative approaches to health care delivery and, in the process, could help address our most pressing health challenges on Earth.^1,2

In particular, primary care is increasingly challenged by administrative burden, time constraints, multimorbidity, and fragmented care delivery, all of which contribute to physician burnout and system strain.

A new era of space exploration is underway, spearheaded by initiatives to return to the Moon and eventually aiming for Mars. The recent historic Artemis II mission, which saw astronauts return to lunar orbit after 50 years, enables the ambitious Artemis program to advance toward a sustained human presence on the lunar surface and lay the groundwork for future missions to Mars. Additionally, the Artemis Accords advance international and scientific cooperation by bringing nations together through space. As a result, there has been renewed global interest in space exploration, with over 66 nations (as of May 2026) signing on to the Accords. Several other nations are advancing plans for spaceflight and lunar missions, including China’s planned crewed lunar landing and initiatives to establish international partnerships for lunar research. Together, these efforts reflect a growing shift toward multinational, collaborative space governance and exploration frameworks.

These missions, however, inherently confront the profound medical challenges and health hazards associated with deep space travel: extreme radiation (instrumentation on China’s Chang’e-4 lunar lander measured lunar radiation to be ranging from 200 to 1000 times more than radiation on Earth,^2,3 prolonged isolation, vast distances, altered gravity, and limited resources. ² Providing continuous, effective medical care in such a hostile environment necessitates cutting-edge technologies and creative solutions. Strikingly, these challenges often mirror those encountered in primary care, especially in remote and underserved communities on Earth, presenting a unique translational pathway. In both settings, primary care physicians, spaceflight surgeons, and crew medical officers manage health issues under conditions of limited resources, high cognitive load, and significant operational pressure.”

REIMAGINING HEALTH CARE DELIVERY FROM ORBIT

The most immediate synergy lies in virtual clinical care, or telemedicine.^2,4 Already integral to continuous astronaut health monitoring, real-time consultation with spaceflight surgeons has long been standard. The COVID-19 pandemic globally accelerated the adoption of virtual care, demonstrating its Earth-bound potential. As deep space missions extend further, the drive towards greater autonomy in medical decision-making in order to mitigate communication delays and distance directly informs the evolution of remote care models. Similarly, the exploration of artificial intelligence (AI) and augmented reality (AR) applications to support health care in space parallels their burgeoning roles in primary care on Earth. These technologies are poised to support decision-making and transform primary care delivery, especially in remote regions where access is a significant barrier. Additionally, various AI tools are being explored to support the increasing non-patient-facing components of primary care such as documentation and charting. Therefore, advances in AI-driven healthcare technologies for Earth based primary care and space-based medical care are likely to provide reciprocal benefits, with innovations in one setting informing and strengthening care delivery in the other.

Furthermore, the rigorous focus on preventive screening and proactive health management for astronauts offers invaluable lessons for primary care. Astronaut health is meticulously monitored to mitigate risks such as microgravity-induced deconditioning and radiation exposure, which can lead to issues including bone and muscle loss, conditions commonly addressed by both space medicine and primary care. This proactive identification of health risks, personalized exercise regimens, and emphasis on nutritional interventions underscore the critical importance of early intervention and lifestyle modification, core principles of effective primary care. This model of continuous, high-frequency health surveillance and prevention in space medicine may serve as a translational framework for strengthening preventive care, early disease detection, and chronic disease management in primary care settings.

Deep space missions are driving advancements in technology for continuous health monitoring and analysis; capabilities that are all directly relevant to enhancing primary care. Several previous space innovations (also known as space spinoffs) have been incorporated into our daily lives on Earth, including smoke detectors, ear thermometers, high-torque power tools, and satellite navigation. Similarly, space innovations for health care have already led to the development of cutting-edge medical technology.^2,4 One example is the NeuroArm, which became the world’s first neurosurgical robot enabling image-guided surgery inside magnetic resonance machines made in collaboration with the engineers that developed the CSA Canadarm. ⁵

WEARABLE TECHNOLOGY AND SPACESUITS

Spacesuits and wearable technology play a crucial role in space exploration, ensuring the safety and functionality of astronauts in the harsh environment of space. The earlier spacesuits were pressure suits that could keep astronauts alive in case there was a loss of pressure in the space capsule. These suits were the precursors to the more sophisticated suits required for extravehicular activity, also known as spacewalks. Planetary space suits are being developed that focus on providing life support, mobility, endurance in a partial gravitational environment. Using a potential “smart-suit” design, they have the potential to provide continuous monitoring of the health, functioning, and well-being of the astronauts. These suits will be critical to exploring the lunar surface and eventually for use on Mars, necessitating the development of protection against likely prolonged exposures to radiation and extreme temperatures. Additionally, the suits should also protect against other harsh extreme environmental exposures such as Lunar/Martian dust storms while providing greater mobility, flexibility and durability. Stability is also key since falls are commonplace when walking on the lunar surface. According to one study, the dozen Apollo astronauts that set foot on the moon had 27 falls and 21 near falls. ⁶

For the Artemis IV mission, which will see humans return to the lunar surface, NASA partnered with Axiom Space to develop the Axiom Extravehicular Mobility Unit. This suit has incorporated state-of-the art technology, along with enhancing mobility and providing protection from Moon based hazards. Other experts developing spacesuits are also exploring incorporating exoskeletons into the suit design, while researchers at the Massachusetts Institute of Technology (MIT) are also exploring a super limbs suit focused on supporting the maneuvring astronauts on the lunar surface. ⁷ The development of next-generation space suits to protect and support humans in the extremes of space can also have significant applications for Earth-based challenges in exploring extreme environments on Earth, such as deep-sea exploration, polar expeditions, hazardous industrial and nuclear work sites, and supporting disaster management. Additionally, beyond their engineering and protective applications, the physiological monitoring systems used in spaceflight suits may also inform future approaches to reducing clinical workload in healthcare by automating health surveillance and reducing reliance on manual data entry.

MENTAL HEALTH

The psychological challenges of prolonged isolation and confinement experienced by astronauts have led to novel strategies to manage mental health^2,4 at a distance. The development of pre-mission psychological evaluations, team-building protocols, and exploration of virtual and AR tools for maintaining well-being can inform approaches to address isolation and mental health within primary care, particularly in rural or marginalized communities.^2,4 Steps are also being taken by space agencies to help with sleep issues.^2,8 These approaches are also directly relevant, not only for supporting patients but also for addressing physician burnout and occupational stress in primary care, where sustained workload pressure and emotional burden are increasingly recognized as critical workforce challenges ⁹

SPACE SUPPORTING PERSONS WITH DISABILITIES

With the European Space Agency’s selection of the world’s first astronaut with a disability, UK physician Dr. John McFall, there is also the potential of various technological and innovative solutions for parastronauts such as assistive devices and adaptive equipment to also support those with disabilities on Earth. Similarly, various spacesuits being developed, such as those involving exoskeletons and robotic limbs to support astronaut mobility and manoeuvrability, and reduce the risk of falls, would be relevant and beneficial to support those at an increased risk of falls, as well as supporting persons with disabilities. These technologies could also be adapted to enhance mobility and independence for people with physical limitations, enabling them to navigate daily challenges with greater ease and safety. In primary care settings, such innovations may help address the growing need for supportive technologies for aging populations and patients with functional limitations, particularly in the context of increasing patient complexity.

PHYSICIANS AS ASTRONAUTS

Finally, the synergies between space and medicine become more evident looking at dozens of physicians who went on to become astronauts globally, including nearly three dozen NASA astronauts, several from Europe and Russia, and four from Canada. Several of these astronauts are primary care physicians. ¹⁰ The experiences of such astronauts who are also physicians demonstrate that their training, involving problem-solving skills, stress management, and emergency preparedness skills, enhanced their astronaut capabilities and vice-versa.^4,10 Similarly, these shared skill sets also suggest that astronaut training could inform and enhance primary care practice on Earth, offering new approaches to decision-making, resilience, and innovatively addressing health care delivery in high-pressure or resource-limited settings. ¹⁰ These shared competencies are particularly relevant in contemporary primary care, where clinicians must balance increasing administrative demands, complex decision-making, and sustained workload pressures within a constrained health care system.

CONCLUSION

Ultimately, space exploration drives innovation and inspires us to rethink health care delivery, offering new models and technologies that can strengthen primary care systems on Earth.

Authors’ Contributions

All authors contributed to the content of the article using their insight, experience, and expertise. FMA came up with the concept and idea for the article; wrote the first draft, and led the editing, development, revision, submission and correspondence. F.M.A. is associate dean at Toronto Metropolitan University’s School of Medicine associate professor at the University of Toronto, a practicing family doctor, public health doctor, and space medicine researcher. D.R.W.: is a Canadian astronaut (retired), aquanaut, ER doctor, former President and CEO of Southlake Regional Health Center, former Director of Space & Life Sciences at NASA Johnson Space Center, and currently the CEO of Exploration Incorporated.