Mars Links & Likes

NASA’s authoritative Mars clock, with local solar time and orbit displays.

The essential definitions behind sols, MTC, local time, and seasonal angles.

A readable introduction to why Mars needs different clocks.

Interactive Earth–Mars trajectory and launch-energy porkchop plots; login may be required.

Precise planetary positions and trajectories for serious calculations.

Your requested constant-acceleration trip-time calculator; an idealized model, not a mission design.

Visualize the changing positions of Earth, Mars, and spacecraft.

Fundamental rotation, revolution, atmosphere, and seasonal facts.

Learn to interpret Mars24’s local clocks, sun angles, and orbital graphics.

The completed competition’s credible approaches to autonomous habitat construction.

An unusually well-developed vertical habitat and materials concept.

Classic proposal for an ice-based habitat with natural shielding potential.

Realistic crew habitat and simulated Mars missions on Earth.

Interactive surface mapping and route exploration using mission imagery.

Serious geospatial layers and mission-planning software for Mars.

Professional community at the intersection of architecture and spacecraft systems.

Remarkable orbital imagery for scouting terrain and geological features.

A NASA-developed inflatable ice-shell habitat concept.

Major independent advocate for human exploration and settlement.

Advocacy, conferences, and policy dialogue on sending people to Mars.

Field reports from Utah crews rehearsing Mars-like operations.

Devon Island analog with real isolation, terrain, and field logistics.

Hawaiian analog expeditions examining isolation and planetary living.

Crew health, resource limits, and simulated long Mars missions.

Science communication and a powerful independent space advocacy network.

Global early-career community for future space leaders and policy makers.

A route into experiments, field proposals, and analog research partnerships.

Core reference for the fully reusable launch architecture central to SpaceX’s Mars vision.

Aerocapture, hypersonics, decelerators, landing systems, and engineering tradeoffs.

Why landing very large masses on Mars demands new braking techniques.

Technical look at inflatable decelerators, aerocapture, and heavy landers.

Heavy-lift launch capability in the broader space transport ecosystem.

Historical experiments in inflatable aerodynamic braking.

Exceptional public explanations of propulsion, launch operations, and Starship engineering.

Detailed reporting, engineering commentary, and launch-site observation.

A compact NASA refresher on the physics behind every mission architecture.

Europe’s bioregenerative-loop program for recycling air, water, and food.

Antarctic greenhouse experiment for long-duration extraterrestrial food systems.

Veggie plant-growth work, useful as a stepping stone toward Mars agriculture.

Controlled plant-growth instrumentation with implications for deep-space food.

Inventive compact food-production systems for missions far from resupply.

Completed innovation challenge on nutritious food for future Mars crews.

NASA’s real work on producing methane fuel from Martian CO₂ and water.

Results from the completed Mars oxygen-generation experiment.

Contemporary examples of turning waste into valuable life-support inputs.

Where subsurface ice may make human landing sites viable.

Drilling, sampling, and mechanized systems for planetary materials.

A clear introduction to the machines that explore Mars.

Cutting-edge robotic mobility, sample collection, and autonomy.

Robotic subsurface exploration and the search for biosignatures.

Raw and processed mission measurements for anyone doing serious analysis.

Planetary geology, map products, cartography, and coordinate systems.

Real student-built rover competitions with practical task requirements.

Lunar mobility technology with obvious applicability to future Mars vehicles.

Start with the major evidence-based objection to easy terraforming.

The scientific paper assessing accessible Martian carbon dioxide.

How Mars lost atmospheric material and why retention matters.

Compact visual explanation of the pressure deficit.

Specialist global-climate models for real Martian conditions.

Brilliant cultural gateway into the tradeoffs of transforming a planet.

Ground the imagination in actual temperatures, pressure, and atmospheric composition.

Downloadable graphic explaining available Martian greenhouse-gas reservoirs.

NASA’s broader Mars portal for atmospheric findings and mission context.

The central international technical reference for biological contamination controls.

Mission-level explanation of protecting Mars and Earth from contamination.

Evidence-based assessment of the hazards that cannot be waved away.

Practical reports on peaceful, sustainable, and secure space activity.

Industry best practices for maintaining a safe space environment.

Solar events and radiation-environment monitoring that future missions depend on.

Serious engineering papers on failures, safety factors, and mission assurance.

How much health risk should a long-duration crew reasonably accept?

Planetary-defense thinking and the discipline of tracking hazards.

Why interplanetary networking needs store-and-forward protocols.

The actual internet standard underlying modern DTN architecture.

The existing orbital communications architecture around Mars.

Completed laser communications demonstration at interplanetary distances.

See which spacecraft Earth’s great radio dishes are talking to.

Europe’s ground segment for navigating and communicating with spacecraft.

How agencies design the communications layers behind deep-space missions.

An actual implementation of interplanetary delay-tolerant networking.

Standards for communicating across otherwise incompatible national systems.

Landmark investigation of how long spaceflight affects the human body.

The cleanest overview of the major problems Mars travelers face.

Research on gravity, isolation, immunity, radiation, and performance.

More granular physiological and behavioral risk evidence.

Health standards and medical certification thinking for space crews.

Where simulated space radiation helps researchers understand biological damage.

Professional medicine and research covering aviation and space health.

Studies of life sciences and crew health for exploration.

Underwater expedition analogs for medical and team operations.

Robotics and autonomy research from the laboratory that drives Mars rovers.

Open flight software used for high-reliability autonomous spacecraft.

Open mission-control visualization software from NASA.

Reusable code and research tools from across the agency.

The broad software ecosystem behind modern robotics development.

Search actual technology-development projects instead of marketing claims.

Engineering lessons from autonomous flight in Martian air.

Modeling extreme aerodynamics, materials, and exploration systems.

European orbital and planetary robotics technology work.

Designs considering engineering, society, politics, and settlement economics.

A useful record of the strongest competition proposals.

One of the movement’s clearest statements of aspiration.

An essential skeptical examination of the obstacles to space settlement.

Detailed policy analysis, budgets, legislation, and institutional developments.

Longer-form independent essays on strategy and space society.

Lessons from designing open institutions for off-world settlements.

Advocacy and public decision-making frameworks for exploration.

Independent research on space governance, law, and sustainability.

Investment analysis of the fast-changing commercial space sector.

Specialist space-tech investor and industry commentary.

Space industry statistics, launch activity, and market research.

Current economic assessments, including ESA’s 2026 space economy report.

Autonomy-heavy industrial robots for extreme mining environments.

Hardware, structures, and in-space manufacturing capabilities.

Real spacecraft-based manufacturing and materials-processing experiments.

Closed-environment cultivation and controlled ecosystems for extreme conditions.

Surface transport and robotic delivery systems applicable beyond the Moon.

The indispensable starting point: non-appropriation and state responsibility.

Nonbinding commitments guiding peaceful exploration and interoperable operations.

All five foundational UN space treaties in one place.

Duties involving the rescue of astronauts and return of space objects.

Responsibility for damage caused by space objects.

Why states keep formal registries of launched objects.

Scholarly work on the evolving international legal framework.

A real national-law example affecting commercial resource rights.

Biology and contamination rules that shape what settlers can do.

Beautiful retro-futuristic posters, including a Mars settlement vision.

A particularly good standalone image for future-settlement imagination.

Orbital surface photography that often looks like abstract art.

Photos, video, mission artwork, and scientific background.

Planetary visualizations, animation, maps, and explainers.

Models and printable resources for visualization or education.

A niche gallery of imagined Martian buildings, colonies, and landscapes.

Community of artists depicting spaceflight, planets, and plausible futures.

A rich inspiration feed of independently made habitat and city designs.

Essential science fiction on geology, politics, settlement, and transformation.

The broader post-scarcity civilization imagination, well beyond Mars alone.

A thoughtful community for Banks’s artificial intelligences and civilizations.

Settlement logistics and cascading failures, explored as a management game.

Valuable for politics, shipping, culture, and practical space-worldbuilding.

Your requested Mars-focused visual blog, artwork, timelines, and concepts.

Your requested specialist channel; explore its visual orbital and settlement ideas.

Human settlement-focused discussions, links, and arguments.

Broad Mars science, missions, imagery, and public conversation.

Original statements and rapidly changing public plans; distinguish aspiration from schedule.

Company announcements, launch footage, milestones, and engineering clips.

The vehicle, its stated capabilities, and its mission architecture.

Historic first-hand exposition of the Mars transport and base vision.

The published 2017 IAC presentation, useful for tracing changing assumptions.

Official 2024 SpaceX video outlining the company’s Mars objectives.

Remarkably direct facility tour and engineering discussion.

Official presentations, flight replays, and test coverage.

A timeline of company claims, announcements, and progress reports.