RES-06 · Article series · Robotic Medicine

Robotic and Autonomous Medical Care in Spaceflight

Distance from Earth Isolation & Confinement Gravity Fields In-flight EVA & Surface Ops LEO long-duration Cislunar / Lunar orbit Lunar surface Mars transit & surface Public Student Clinician Researcher

AI-assisted Last reviewed: 2026-10-18 · Reviewer: Self-verified sources (AI-assisted); no independent review yet

Bottom line

Robots have worked on the space station since 2011, and a surgical robot was tested there in 2024, but no robot has yet given medical care to a crewmember in space. ◆◆◆◆ High · F
NASA's design standard already sets rules for space robots: the human stays in command, can override or shut down the robot at any time, and must restart it after an emergency stop. ◆◆◆◆ High · E
This series is a thought experiment. It proposes ideas and a framework; it is not operational guidance. ◆◆◆◆ High · E

Proposed certainty (◆ High → ◇ Very low) and evidence-type tags: F flight · A analog · M model/animal · C computational · E expert/operational/standards. AI-proposed, pending reviewer confirmation. How to read the grades.

Published in this series

RES-06.1 · series article ·

Part 1 · Humanoid robots as medical crew

Part 1 of the robotic care series: why onboard care matters as missions go farther, what robots have already done in space, a ladder of autonomy, the limits, the ethics and rules, and a framework for robot-learnable clinical protocols.

◆◆◇◇ Low · F A E

About this series

Missions are getting longer and farther from Earth. On a space station, a seriously ill crewmember can be brought home in about a day or less, NASA’s planning assumption for low Earth orbit [6]. On the way to Mars, help from Earth is minutes away by radio and months away in person [5]. This series asks what robots could safely do to close that gap, and how to write medical protocols that a robot can learn, follow and be audited against.

Articles

Part	Article	Status
1	Could a humanoid robot be a medical crewmember? A thought experiment	Published Oct 18, 2026
2	Writing robot-readable clinical protocols: format and validation	Planned
3	First protocol set: restraint and CPR support, assisted ultrasound, wound care	Planned
4	Simulation, analog testing and human sign-off for robot care	Planned

Planned parts are not yet written. Each will be checked against primary sources before publishing.

In the Robotic Medicine section

Section overview
Capabilities at a glance: nine care domains against three autonomy levels.
Protocol library: the index of planned robot-readable protocols, by body system.

Crew Health Command Center (Telemetry prototype): the kind of data stream a care robot would read and add to.
In-flight emergencies and evacuation
Point-of-care ultrasound in spaceflight
Risk atlas: in-mission medical conditions and Earth-independent operations

Evidence profile

Overall certainty: ◆◆◇◇ Low (proposed)
Evidence types: F · Flight dataA · Terrestrial analogE · Expert / operational / standards
Literature through: 2026-10-18

Requirements referenced 2

Requirement	Title	Plain-language meaning
[V2 10165]	Automation and Robotics Override and Shut-Down	The human operator must be able to safely override and shut down the robot.
[V2 10174]	System Initiation	Autonomous robots may be started, and restarted after an emergency stop, only by a human.

IDs as published in NASA-STD-3001 Vol. 1 Rev C (2023-09-15) and NASA-STD-3001 Vol. 2 Rev F (2026-07-14). NASA-STD-3001 binds NASA programs; it is not a regulation for commercial flights. Paraphrased. Standards quick reference.

References 6

NASA. Robonaut 2. www.nasa.gov/robonaut2/ NASA F
NASA Johnson Space Center. Houston We Have a Podcast, episode 339: Robotic Surgery in Space (recorded April 10, 2024). www.nasa.gov/podcasts/houston-we-have-a-podcast/robotic-surg… NASA F
NASA. NASA-STD-3001, Volume 2: Human Factors, Habitability, and Environmental Health, Revision F (approved July 14, 2026), Section 10.6 Automated and Robotic Systems. standards.nasa.gov/standard/NASA/NASA-STD-3001_VOL_2 Standard E
Khanna R, Li Y, Cook M, et al. Surgery for interplanetary space missions. Br J Surg. 2026;113(3):znag005. doi:10.1093/bjs/znag005 PMID:41823369 Peer-reviewed E
NASA. Mars communications disruption and delay (fact sheet, 2023 Moon to Mars Architecture Concept Review). www.nasa.gov/wp-content/uploads/2024/01/mars-communications-… NASA E
NASA Human Research Program. Evidence Report: Risk of Ionizing Radiation Carcinogenesis (2026). Table 3, Design Reference Mission categories (Distance from Earth: Evacuation). humanresearchroadmap.nasa.gov/evidence/reports/HRP-ER-CANCER… NASA E

Machine-checked on 2026-10-18: each URL resolved, each DOI's title/journal/year matched via Crossref, and claims were checked against the source text (abstract or full NASA page). Human verification against full text is still required before review. NASA documents are U.S. Government works (public domain) and are summarized with attribution; journal articles are summarized, not reproduced.

Article info

Authors: Pending (AI-assisted)
Reviewer: Self-verified sources (AI-assisted); no independent review yet
Last reviewed: 2026-10-18
Literature through: 2026-10-18
AI-assisted: Yes (disclosed)
COI: Pending
License: CC BY-SA 4.0
Use: Educational only · Disclaimer
Cite this version: Pending first edition