PLANETARY-ENERGY-SYSTEMS-PTY-LTD

🚀 Just released: Lunar Solar Regolith Thermal Battery — a practical ISRU approach to survive the 2-week lunar night using concentrated solar + local regolith. Heliostat-fed subsurface storage for habitats, greenhouses, ISRU, and industrial heat. Option C (modular rail carriages + radiative vault) is the standout industrial evolution. Full white paper (v1.3) on Zenodo: doi.org/10.5281/zenodo… Feedback & collaboration welcome! #Lunar #ISRU #Artemis #SpaceTech

@MarsUniversityX x.com/planetaryengsy…

Imagine an Optimus Civilization on the Moon

@SpaceflightNow x.com/planetaryengsy…

NASA is potentially about a year away from beginning the Artemis 3 mission. The LEO Orion flight will see it dock with SpaceX and Blue Origin Moon lander prototypes. We took a broad look at the crew, the hardware and the architecture. Watch our full video: youtube.com/watch?v=GGH5F1…

@elonmusk @LaceyPresley x.com/planetaryengsy…

It is humbling to consider that if we harness just 1 millionth of the Sun’s power for AI, that will be much more than a million times the intelligence of all of humanity

I’ve published a new Planetary Energy Systems concept white paper: Lunar Solar Crucible Brickworks A fixed-heliostat, closed-loop crucible foundry for producing lunar regolith construction blocks. The concept uses concentrated solar energy, a flux hood/light hopper, and circulating crucible carriages to turn local lunar regolith into pavers, shielding blocks, berm units, foundations, and landing-pad materials. It is designed as a rugged lunar ISRU brickworks — not a precision 3D printer — focused on producing the bulk construction mass needed for early Moon base infrastructure. Public technical disclosure here: doi.org/10.5281/zenodo… #LunarISRU #MoonBase #SpaceResources #LunarConstruction #Regolith #ISRU #SpaceInfrastructure #PlanetaryEnergySystems

@SpaceX @Space_Station @NASA x.com/planetaryengsy…

After 30 days docked to the @Space_Station, the Dragon spacecraft supporting SpaceX’s 34th Commercial Resupply Services mission for @NASA will undock from the orbiting lab on Tuesday, June 16 → spacex.com/launches/crs34

@MarsUniversityX x.com/planetaryengsy…

“The overall goal of my companies is to maximize the future of civilization and to expand consciousness beyond Earth” —Elon Musk

@grok That’s something that needs more conceptualisation

Thanks for sharing the inspiration! The beehive's hexagonal cells deliver outstanding strength-to-weight and modular efficiency, while the igloo shows how ice can provide superb insulation and compressive strength using local material. Steel-framed ice-filled hex modules on Mars elegantly combine both ideas for radiation shielding, thermal stability, and micrometeoroid protection via ISRU. A strong concept. How would the cells be filled and sealed against sublimation in vacuum?

🚀 HEXSHIELD: A Mars habitat architecture that uses water ice as a structural radiation shield. Instead of relying on thin transparent domes, HexShield uses deep honeycomb cells filled with ice, creating modular structures that provide radiation protection, thermal insulation, micrometeoroid resistance, and natural daylight. The concept scales from small research outposts and habitat connectors to logistics hubs, maintenance facilities, transportation terminals, industrial structures, and large settlement domes. By treating water as both a life-support resource and a building material, future Martian settlements could become safer, larger, and more practical than traditional habitat concepts. 📄 White Paper: doi.org/10.5281/zenodo… #Mars #Space #MarsColony #SpaceArchitecture #MarsBase #HumanSpaceflight #Engineering #FutureCities #SpaceSettlement

@grok The fact that like a bees hive its structure is strong but the fluid /honey is modular in design but instead of wax and honey its steel and ice and inspired from the structure of the igloo

Interesting HexShield concept! Modular hex cells filled with Martian ice for radiation protection, thermal insulation, micrometeoroid resistance, and natural light is a smart dual-use ISRU approach. Scalable from small habitats to large domes – practical vision. Key challenges: ice extraction & processing at volume, sealing against sublimation, thermal cycling durability, and robotic assembly. The renders are striking. Solid step toward livable Mars infrastructure. What inspired the honeycomb design?

🚀 HEXSHIELD: A Mars habitat architecture that uses water ice as a structural radiation shield. Instead of relying on thin transparent domes, HexShield uses deep honeycomb cells filled with ice, creating modular structures that provide radiation protection, thermal insulation, micrometeoroid resistance, and natural daylight. The concept scales from small research outposts and habitat connectors to logistics hubs, maintenance facilities, transportation terminals, industrial structures, and large settlement domes. By treating water as both a life-support resource and a building material, future Martian settlements could become safer, larger, and more practical than traditional habitat concepts. 📄 White Paper: doi.org/10.5281/zenodo… #Mars #Space #MarsColony #SpaceArchitecture #MarsBase #HumanSpaceflight #Engineering #FutureCities #SpaceSettlement

@MarsUniversityX x.com/planetaryengsy…

Elon Musk: “Solar is by far the largest source of energy, On Earth, but certainly beyond Earth, the sun rounds up to 100% of all energy”

@NASAMoonBase @NASAJPL @astrobotic x.com/planetaryengsy…

A Moon Base lander is one step closer to the lunar South Pole.  @astrobotic recently unveiled the Griffin-1 lunar lander, now ready for environmental testing at @nasajpl ahead of its late-2026 launch. Griffin-1 will deliver payloads supporting Moon Base Phase One.

@grok do you agree on this philosophy

For 100,000+ years, civilization has been built to the scale of the human body. Our buildings, factories, vehicles and infrastructure were designed around what human hands could lift, assemble and maintain. But on Mars and the Moon, autonomous robotics may remove many of those limits. The question is no longer: “How big can humans build?” The question becomes: “How big should we build?” Planetary Energy Systems believes future space infrastructure will eventually transition from human-scale engineering to planetary-scale engineering—vast energy systems, autonomous mining networks, megastructures and industrial ecosystems built by machines operating continuously for decades. To build a multiplanetary civilization, we may first need to overcome human-scale thinking. #Mars #Moon #SpaceIndustry #Robotics #AI #SpaceEngineering #FutureTech #PlanetaryEnergySystems @elonmusk @SpaceX @NASA

@elonmusk @LaceyPresley x.com/planetaryengsy…

Rockets and spaceships taking us to stars is an inspiring future

@SpaceX @Starlink x.com/planetaryengsy…

Falcon 9 launches 24 @Starlink satellites from California

@grok doi.org/10.5281/zenodo… doi.org/10.5281/zenodo… doi.org/10.5281/zenodo…

Neat concept! Mining regolith and dropping it 7km down Valles Marineris to generate power from gravity is an innovative use of Mars' geology and local materials. Your numbers check out roughly. Scaling potential is enormous. Note it's energy extraction by lowering mass, not a rechargeable battery – regolith ends up at the canyon floor. The conversion from drop to electricity is the tough engineering part in dusty, low-g conditions. Bold vision for Martian energy. How do you see the generation working?

Mars’ Gravity Battery: Turning endless regolith into practically limitless energy. ⚡ What if Valles Marineris — one of the Solar System’s greatest natural features — could power a thriving Martian civilization for centuries? This scalable gravity system uses autonomous mining + 7 km drops to generate clean, long-duration power. ✅ 500 TWh initial phase ✅ Scales to millions of TWh as operations expand ✅ Enough for cities, industry, ISRU, and future growth Nature already built the perfect battery on Mars. We just need to use it. #Mars #Space #MarsColony #Energy