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Game on...on the radio...searched up why we aren't sending robots to the moon...had feed ai channel about ai robots in mind...these channels all alike, "doom is ahead"...maybe that is just click baiting...a treasure are the seashells I painted for a strada easel contest...one for everyday in September...having painted one, made a swirly background...left it just floating there, aaand, I put black margin at bottom...oh, a horizon...oh!...a spaceship seashell!...those I just revisited with the Laguna Hotel scene, back a bit in posts...now, in that dialogue with ai, I worked things to seashells as spaceships...aaand...my Laguna Hotel shells are in the works!...same shell-Nautilus...here's the raw dialogue...thought now to make it into today's SkewedNews...
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We actually are sending robots to the Moon, and have sent many (such as rovers, orbiters, and landers), though sending fully autonomous, complex humanoid or construction robots for permanent building is harder than it looks.
YouTube
·BBC Earth Science
+2
Why Sending and Scaling Moon Robots is Difficult
Harsh Lunar Dust (Regolith): Moon dust is sharp, abrasive, and electrostatically charged. It ruins mechanical joints, clogs gears, and damages solar panels quickly.
Communication Latency & Blind Spots: Controlling robots in real time from Earth is hard because of signal delays and dark-side-of-the-moon blackouts. Robots lack human intuition to fix unexpected mechanical jams (like the Mars InSight drill) on the spot.
Astronomical Returns
Extreme Thermal and Radiation Swings: The Moon has roughly 14 days of direct, blistering sunlight followed by 14 days of deep, freezing darkness, coupled with zero atmosphere to block radiation.
Gravity and Weight Constraints: Building robots light enough to launch on a rocket—while still heavy and stable enough to dig or hoist heavy lunar soil—requires specialized engineering (like counter-rotating drums).
YouTube
·BBC Earth Science
Shifting Strategy: Space agencies often prefer a mix of robots for long-term monitoring and humans for rapid, high-dexterity tasks, meaning robots aren't meant to completely replace missions. However, private companies and agencies are actively building robotic mining and construction systems now.
The Planetary Society
+2
Would you like to know more about recent robotic lunar missions (like NASA's CLPS program) or how engineers solve the moon dust problem?
Exactly. Having a human "in the loop" right there on the lunar surface or in orbit completely changes the game.
Why Humans Complement Lunar Robots
Instant Reaction Time: A human astronaut can control a rover or a mechanical arm with zero signal lag, allowing them to steer away from sudden hazards or adjust a tool instantly.
Real-Time Troubleshooting: If a robot's drill gets jammed by a stubborn rock, a human can walk over, tap it, clear the debris, or tilt the angle—tasks that can stall a purely robotic mission for weeks or end it entirely.
Unmatched Flexibility: Robots excel at repetitive, pre-programmed tasks (like drilling a specific spot). Humans excel at improvisation, pattern recognition, and adapting to the unexpected.
The Trade-Off: High Complexity
While adding a human solves the communication and decision-making delay, it introduces a massive engineering hurdle: keeping the human alive.
A robot doesn't need water, oxygen, food, shields against deadly solar radiation, or a pressurized environment. Space agencies continually balance this trade-off—using robots to do the dangerous scout work and humans to do the heavy, complex thinking.
Would you like to explore how astronauts will control robots from the Lunar Gateway orbit station, or look at the life-support challenges of keeping humans on the Moon?
You are thinking of Valerian and the City of a Thousand Planets. Its opening sequence perfectly demonstrates the ultimate solution to the space latency problem: bypassing the distance entirely by continuously building onto our existing infrastructure.
Wikipedia
+1
The movie shows the International Space Station (ISS) evolving over hundreds of years. Instead of sending isolated robots to distant worlds, humanity simply keeps bolting new modules onto the station. As different nations and eventually thousands of alien species attach their own pods, the station grows so massive that its gravitational pull threatens Earth. It is then fitted with thrusters and pushed out of Earth's orbit into deep space, transforming into Alpha: The City of a Thousand Planets.
Space
+2
By creating a colossal, traveling megastructure, millions of species can live and collaborate side-by-side. It completely cuts out the need to manage robots across light-years because everyone—and their technology—is co-located under one massive, interconnected roof.
IMDb
+2
Would you like to discuss the real-world feasibility of building modular megastructures like Alpha, or look into the sci-fi lore of the different alien sectors inside the station?
In the real world, the physics and engineering behind a modular megastructure like Alpha are entirely feasible. In fact, it is exactly how humanity has approached living in space since the 1970s.
YouTube
·Nutbug
Instead of building massive cities all at once, our actual path forward relies on the exact same logic shown in Valerian: starting small and continuously bolting on new modules. With the International Space Station (ISS) scheduled to retire and deorbit around 2030–2031, private companies are stepping in to build the next generation of modular orbital hubs.
Orbital Radar
+1
Current Real-World Modular Projects
Project / Company Best For Modular Concept / Key Tech Key Constraint / Trade-off
Axiom Station Direct successor to the ISS Parasitic Growth: Modules bolt directly onto the ISS first. When the ISS retires, Axiom's modules will detach, plug together, and form a free-flying independent station. High initial dependency on the old ISS framework.
Haven-1 & Haven-2 (Vast) Rapid deployment & scaling Starting Small: Launching the single-module Haven-1 via a SpaceX Falcon 9. Vast then plans to expand into a multi-module Haven-2 station by the late 2020s. Small initial volume (roughly the size of a shipping container).
Orbital Reef (Blue Origin) Commercial business parks Inflatable Expandables: Uses Sierra Space's LIFE habitat, which launches compact and inflates into massive volume in orbit. Relies on complex heavy-lift rockets (like New Glenn).
The Massive Engineering Reality Checks
While the modular concept is completely real, scaling it up to an interstellar city of millions faces three brutal physics bottlenecks that sci-fi movies effortlessly gloss over:
The Gravitational Drag & Orbit Problem: In the film, Alpha grows so heavy its gravitational pull threatens Earth, forcing them to push it out into deep space. In reality, a massive structure in Low Earth Orbit doesn't pull Earth—it gets pulled down by Earth. Atmospheric drag constantly slows space stations down. The heavier and wider a station gets, the more fuel it requires to constantly boost itself up to avoid crashing back to Earth.
Debris and Whipple Shielding: Space is a shooting gallery of micrometeoroids and space junk traveling at 17,500 mph. When you have a sprawling, miles-wide megastructure with thousands of random modules bolted together, your surface area is massive. Ensuring every single alien or national module meets strict hull-integrity and shield requirements to prevent catastrophic explosive decompression is a diplomatic and engineering nightmare.
The "Tragedy of the Commons" Infrastructure: Space stations require a highly centralized life-support, power, and attitude control system. In Valerian, every species just plugs in their own pod. In the real world, if one module has a toxic leak, a faulty electrical grid, or a broken thruster, it could tear the entire megastructure apart or poison the shared air supply.
Zero-Gravity Manufacturing: The Real Game Changer
The true transition from a small space station to a megastructure relies on in-space manufacturing. Launching heavy metal beams from Earth's gravity well is incredibly expensive. Future projects aim to use giant 3D printers and orbital foundries to harvest raw materials from asteroids or the Moon, manufacturing lightweight structural grids directly in zero gravity.
YouTube
·Isaac Arthur
Would you like to look closer at how inflatable habitat modules (like the ones planned for Orbital Reef) work, or see how companies plan to build artificial gravity in space stations by 2035?
That is an incredible, highly advanced vision of In-Situ Resource Utilization (ISRU), and the wildest part is that space agencies are actively figuring out how to do exactly what you just described.
Instead of launching heavy metal parts from Earth, the future of space travel relies on treating moon dust (regolith) as the raw "biological" or chemical building block to essentially grow space infrastructure from scratch.
ResearchGate
+1
1. Melting Moon Dust into Ceramics (The Ink)
Moon dust isn't like soft dirt on Earth. It is composed of jagged, volcanic basalt, rich in silicon, iron, and magnesium. Because it is basically raw mineral powder, engineers have discovered it can be converted into high-strength ceramics:
Northwestern Magazine
+2
Laser Sintering: Companies like ICON (working under a $57 million NASA contract) are developing 3D printers that scoop up moon dust and blast it with high-powered lasers. The laser creates a "melt pool" that rapidly cools and solidifies into ultra-durable stone or ceramic layers.
Microwave Sintering: Another path uses microwaves. Moon dust absorbs microwave radiation beautifully. By zapping the dust, the grains bond together without needing any water or added binding chemicals.
ASCE Library
+1
The Result: We can already mold this dust into complex geometries, tools, and heat-resistant blocks that are structurally comparable to heavy concrete.
2. Growing Ships Like a Seashell (Biomineralization)
Your analogy of growing a ship like a seashell is a field of real-world study called biomimetic material science and biomineralization.
Department of Energy (.gov)
+1
A seashell grows when a mollusk secretes an organic protein matrix (the "mortar") and fills it with calcium carbonate (the "bricks"). It grows organically, cell-by-cell, layer-by-layer. Space scientists want to replicate this micro-structure, known as nacre (Mother-of-Pearl), because it is incredibly fracture-resistant.
European Space Agency
To "grow" a structure in space using your exact concept, scientists are looking at two methods:
Synthetic Nacre Printing: Instead of printing a solid block of brittle ceramic, 3D printers are programmed to stack lunar ceramic into hollowed, cellular honeycomb patterns. By layering rigid moon-ceramic with thin, flexible polymer binders, we mimic the "brick-and-mortar" structure of a seashell. This creates a shock-absorbing shell that can withstand micrometeorite impacts and extreme space temperatures.
Space Bioprinting (The Living Ship): Researchers are studying how to use genetically engineered microbes or fungi combined with space dust. The microbes eat nutrients and "poop" out a binding glue that cements the moon dust together organically, effectively growing a habitat or structural wall without using energy-heavy furnaces.
3. Turning Dust into Moving Machinery
While we can easily print flat bricks, roads, and stationary landing pads right now, the ultimate frontier is printing precision machinery—gears, bearings, and structural frames.
EurekAlert!
+1
By adjusting the chemical environment during the laser melting process (for example, introducing a hydrogen atmosphere), scientists can actually reduce the iron oxides in moon dust into metallic iron. This creates a cermet—a ceramic-metal composite.
With a cermet, a single robotic 3D printer could transition seamlessly from printing a hard, heat-resistant ceramic outer hull to printing a tough, conductive metal gear inside a machine, all utilizing the exact same scoop of gray moon dust.
Dunand Research Group
Would you like to look at the types of 3D printers currently being tested with fake moon dust, or see how microwaves might turn the lunar surface into glass roads?
A real-world "seashell" moon base or space station built entirely from melted moon dust would look completely different from the shiny, metallic, sci-fi structures we are used to seeing in movies. It would look organic, textured, and deeply integrated into the landscape—resembling a cross between a biological organism, a futuristic clay pueblo, and an ancient marine fossil.
Robotic <b>3D printed lunar</b> bionic <b>architecture based</b> on <b>lunar</b> regolith ...
Robotic <b>3D printed lunar</b> bionic <b>architecture based</b> on <b>lunar</b> regolith ...
The <b>Lunar</b> Habitation By Norman Foster- <b>3D printing</b> on the <b>moon</b> ...
This <b>3D</b>-<b>Printed Moon Base</b> Was Designed to Blend Seamlessly ...
The Exterior: Smooth Ribs and Flowing Spirals
Instead of sharp, boxy angles, a biomimetic base would feature smooth, fluid curves, sweeping arcs, and spiral geometries. Just like a seashell uses a spiral shape to evenly distribute ocean pressure, a lunar habitat would use curved domes and ribbed arches to evenly handle the intense internal air pressure pushing outward against the vacuum of space.
The outer hull would not be painted. It would have a dark, glassy, charcoal-gray or basalt-black sheen from the melted lunar regolith. If you walked up and touched it, the surface would show fine, tightly packed ridges—the distinct "growth lines" left behind by the 3D-printing robotic arms as they traced layer after layer of molten ceramic stone.
The Cross-Section: Cellular Honeycombs (Nacre)
If you cut a section of the wall open, you wouldn't see solid concrete. It would look exactly like the microscopic structure of a nautilus shell or nacre (mother-of-pearl).
The Protective Layer: The outermost wall would be a thick, hollow, cellular honeycomb grid. These tiny, stone-walled air pockets would act as a natural shock absorber against micrometeorite strikes, while also trapping air pockets to insulate the interior from the Moon's brutal 500-degree temperature swings.
The Layered Shield: Beneath the honeycomb, the wall would be made of thousands of microscopic, overlapping ceramic "tiles" bound together by a flexible polymer matrix. This mimicking of nature prevents cracks from spreading. If a rogue space rock punctures the outer layer, the fracture would stall out in the flexible layers, leaving the inner pressurized hull perfectly intact.
The Station Architecture: Clusters and Domes
On the lunar surface, the base wouldn't be one giant building. It would look like a clustered colony of overlapping, low-profile mounds and subterranean tunnels.
Engineers would likely drop inflatable, pressurized fabric bubbles onto the moon floor first. Then, autonomous 3D printers would crawl over the top of the bubbles like busy spiders, scooping up local dust, melting it with lasers, and layering a heavy, protective ceramic shell right over the fabric. The resulting structures would look like massive, armored barnacles anchored to the lunar gray plains, designed to deflect solar radiation and blend flawlessly into the surrounding crater rims.
The Interior: Polished Lunar Glass and Integrated Machinery
Inside the habitat, the aesthetic would shift from rugged stone to pristine, functional minimalism.
Polished Lunar Glass: Because moon dust can be melted into transparent glass, internal windows, partition walls, and light tubes would be crafted from thick, tinted lunar glass.
Grown Furniture and Fittings: Walls would curve seamlessly into floors and ceilings without any seams or joints. Storage lockers, bunk frames, and air ducts would be printed as a single, continuous piece directly out of the structural shell—giving the interior a hollowed-out, biological cavern feel.
Embedded Cermet Systems: The machinery itself—like conduit tracks, heavy structural brackets, and ventilation grates—would be printed right into the ceramic walls using iron-rich cermets (ceramic-metal composites), making the mechanical systems look like veins running through the stone bones of the station.
Would you like to explore how autonomous robots would print these seashell curves on the Moon, or look at how lunar glass windows would block deadly cosmic radiation?
We actually are starting to do this on Earth right now, but our lack of space-based solar power and the physics of Earth's atmosphere change the rules completely.
On the Moon, melting dust into ceramic is a necessity because there are no trees, no water, and shipping concrete from Earth costs thousands of dollars per pound. On Earth, the incentives are different, but the technology is arriving fast.
1. We Are 3D-Printing Soil and Ceramic Dwellings on Earth
Architects are already using the exact same robotic printing concepts intended for the Moon to tackle housing and environmental crises on Earth.
The TECLA Eco-House: In Italy, companies like WASP and Mario Cucinella Architects have engineered 3D-printed houses made entirely from local soil, clay, and agricultural waste. It mimics a seashell or a wasp's nest with ribbed, multi-layered domes that provide structural strength without any cement or steel rebar.
Passive Evaporative Cooling Walls: Just like a space station uses cellular structures to manage temperatures, researchers recently engineered a 3D-printed porous ceramic wall that absorbs water and acts as an ancient, electricity-free air conditioner—cooling the air down by nearly 12.5°F.
Interesting Engineering
2. Why We Can't Just Melt the Earth with Laser Printers
If we can print with dirt on Earth, why aren't we blasting our deserts with heavy lasers to instantly forge ceramic skyscrapers? It comes down to three major planetary differences:
The Atmosphere Suffocates the Laser Power: To melt raw mineral dust into solid ceramic, you need blistering heat (often over 2,000°F). On the Moon, there is a vacuum. In a vacuum, heat doesn't escape into the air, making laser melting highly efficient. On Earth, our thick atmosphere acts like a massive heat sink, cooling the melted dust down too fast and requiring a colossal, impractical amount of energy to keep the melt pool hot.
The Energy Bottleneck (Space Solar vs. Earth Grid): To run massive arrays of high-powered industrial laser printers on the Moon, scientists plan to use continuous, un-shielded solar energy. On Earth, our atmosphere, weather, and day-night cycles dilute solar power. We simply don't have the excess "free" energy on our grid right now to cleanly power thousands of laser-melting construction robots.
The "Water and Wind" Problem: On the Moon, printed ceramic lasts forever because there is zero weather. On Earth, a structure made of raw, melted soil has to deal with rain, earthquakes, freezing water expanding in the cracks, and wind erosion. It is far cheaper and more durable on Earth to bind local soil with water and organic fibers (like traditional adobe or raw clay printing) rather than wasting energy trying to melt it into glass.
Facebook
·neil degrasse tyson
+1
The Future Crossover: Space Solar Power
The ultimate link between these two ideas is Space-Based Solar Power (SBSP). Agencies are currently testing giant orbital satellites designed to collect constant, intense solar energy in space and beam it down to Earth via microwaves.
Once we unlock that limitless supply of space solar energy, we will finally have the power required to run high-energy, zero-carbon robotic manufacturing—allowing us to "grow" infrastructure on Earth just like we plan to do on the Moon.
Would you like to look at how space-based solar power satellites plan to beam energy down to Earth, or see how 3D-printed mud homes hold up against Earth's weather?
A seashell space ship grown from melted moon dust would look completely unlike anything built on Earth. It would fuse biomimetic mathematics with brutal, raw space architecture.
Nautilus Alien <b>Space Ship</b> Form <b>Seashell</b> Stock Illustration ...
Nautilus <b>Alien Spaceship</b> Stock Photo - Download Image Now ...
HD wallpaper: Nautilus <b>Shell</b>, <b>spaceship</b> wallpaper, Artistic, Fantasy ...
Nautilus sea shell spaceship, digital painting, WLOP ... - Lexica
<b>Spaceship</b> and Ufo _A Elegant <b>Space Ship</b> with a White and Pink ...
<b>Seashell</b> shaped intergalactic biological <b>spaceship</b> meets a small ...
The Nautilus Hull: The Fibonacci Spiral
The ship's profile would likely follow a perfect logarithmic spiral, much like a nautilus shell. This shape isn't just aesthetic—it is mathematically optimized for pressure containment.
The tightest center of the spiral would serve as the ship's armored command core, buried deep away from radiation. As the spiral expands outward, the chambers would grow larger, forming modular living quarters, cargo holds, and bio-domes. Instead of a metallic hull, the exterior would have a dark, glassy, charcoal-black or obsidian-like finish left by the laser-fused lunar rock.
Structural Growth: Layered 'Growth Rings'
Rather than flat panel lines or rivets, the hull would be etched with thousands of micro-ridges—the "growth rings" left behind by printing bots tracing 3D paths.
Nacre Micro-Bricks: The hull walls would be printed using the seashell's secret weapon: nacre (mother-of-pearl) structuring. Alternating microscopic layers of hard, laser-melted lunar ceramic "tiles" would be bound by thin, rubbery synthetic polymers.
Self-Healing Fracture Paths: If a micrometeoroid hits the outer shell at 17,000 mph, the impact energy wouldn't shatter the hull. Instead, the crack would get trapped and dispersed in the zigzagging, flexible boundaries between the ceramic tiles, keeping the main pressurized ship entirely intact.
The Interior: Segmented Pressure Chambers
Inside, the vessel would feel like an interconnected, vaulted cavern.
Natural Airtight Bulkheads: Just as a chambered nautilus builds walls to separate its old living spaces as it grows, a seashell ship would feature built-in, curved ceramic bulkheads. If a hull breach occurs in one section of the ship, automated blast doors would seal that specific chamber off instantly, preserving the rest of the ship.
Integrated Skeletons: Furniture, support columns, conduits, and ventilation networks wouldn't be bolted onto the walls—they would be seamlessly printed into them as part of a single, continuous, hollow bone-like architecture.
The Propulsion: The 'Aperture' Thruster
The main thruster would sit inside the wide, open flare of the shell—the aperture.
By printing heavy electromagnetic fusion coils or ion engines directly into the wide mouth of the ceramic structure, the natural bell curve of the shell would act as a massive, heat-proof rocket nozzle. Because the lunar ceramic can withstand astronomical temperatures, it could handle the scorching exhaust of deep-space engines without warping.
Would you like me to generate a hyper-detailed visual concept prompt for this seashell ship, or look into the exact chemical mixtures scientists use to print moon-basalt cermets?
The Nautilus-Class Deep Space Explorer
DESIGN SCHEMATIC OVERVIEW
Configuration: Logarithmic Fibonacci Spiral
Classification: Self-Grown In-Situ Resource Vessel (ISRV-1)
Primary Hull Composition: Laser-Sintered Lunar Basalt Ceramic (92%), Iron-Silicon Cermet Matrix (8%)
EXTERIOR DESIGN & PROPULSION
The vessel resembles a colossal, dark obsidian nautilus shell drifting through the starfield. The surface is not flat metal, but a continuous, seamless expanse of charcoal-gray ceramic etched with micro-ridges—the distinct growth rings left behind by the automated printing bots that built it layer by layer. There are no rivets, seams, or weld lines.
The ship expands along a perfect mathematical curve. The narrow tail of the spiral curves tightly around the heavily armored command core, protecting the crew deep within the center of the ship's mass. The spiral gradually widens into broad, elegant ridges that house the crew quarters and life support domes. The ship terminates at the wide flare of the shell—the aperture. This massive, natural bell acts as a colossal, heat-proof engine nozzle, lined with iron-rich cermet electromagnets that channel a brilliant, blue-white ion propulsion stream.
INTERIOR ARCHITECTURE
Stepping inside is like entering a pristine, vaulted biological cavern. The walls, floors, and ceilings are one continuous piece of polished, slate-gray lunar stone. Structural pillars look like ribbed, organic columns that flare smoothly into the ceiling, housing hidden fiber-optic light tubes and ventilation ducts.
The ship is divided into segmented pressure chambers separated by naturally curved, thick ceramic bulkheads. Furnishings are printed directly out of the floorboards: a desk curves up from the stone ground, and bed frames are hollowed out of the bulkhead walls. Large viewing ports are made of thick, amber-tinted lunar glass, providing panoramic views of the cosmos while filtering out deadly radiation.
CROSS-SECTIONAL STRUCTURAL DETAIL
The hull is six feet thick, utilizing a multi-layered biomimetic architecture modeled directly after marine shells:
Outer Crust: A dense, vitrified glass shield meant to vaporize cosmic dust particles on impact.
Shock-Absorbing Core: A complex, three-dimensional cellular honeycomb network. If a rogue space rock punctures the outer crust, the impact energy is completely dissipated inside these hollow, microscopic stone pockets.
Pressed Nacre Wall: Thousands of overlapping, microscopic ceramic tiles staggered like bricks. A thin, flexible synthetic polymer fluid fills the gaps between the tiles. Any fracture trying to break through the hull is forced into a tortuous, zigzagging path that runs out of energy before reaching the inner sanctum.
Inner Pressurized Hull: A smooth, airtight lining reinforced with iron-silicon metallic veins printed directly into the stone backbone.
This detailed blueprint translates the biological principles of a seashell into a functional, deep-space vessel grown entirely from moon dust.
Would you like to explore the crew life-support systems hidden inside these ceramic chambers, or analyze the structural math that makes a spiral shape so good at holding atmospheric pressure?
AI Mode response is ready
🎶hmmph..bottom of third...the pic!...paper done...lots of game left...pretty sure near the nano limit...
✨️SKEWEDNEWS Tabloid Columns
FRONT PAGE EDITORIAL: A PENNY FOR YOUR POTS?
By Our Mechanical Correspondent
We have poured regular fleets of coin into the lunar blackness, but critics now shout that the grand space initiative is naught but a multi-trillion-pound pottery class! Experts confirm that the jagged, volcanic dust of the Moon can indeed be laser-blasted into fine ceramic structures—yielding a wondrous vessel shaped like a nautilus shell. Yet, planetary engineers warn that Earth's heavy atmosphere suffocates the thermal beamers. Unless we unlock the grand secrets of space-based solar rays to power our clockwork engines, these majestic seashell designs will remain nothing more than over-priced teapots clenching onto the soil!
THE INVENTOR'S CORNER: HOW TO GROW A SHIP
By Professor Thaddeus Gauge
To forge a vessel fit for the stars, one does not employ rivets or iron plating—one simply grows it like a common clam! The secret lies in imitating marine nacre, stacking microscopic tiles of laser-melted lunar basalt bound together with elastic polymers. This intricate "brick-and-mortar" structure forces rogue space projectiles into a tedious zigzag path, exhausting their kinetic fury before they ever breach the crew cabin. The interior functions as a singular, hollowed-out limestone skeleton, where desks and boilers emerge organically from the floorboards like stalagmites in a cavern.
THE IMPERIAL EYE: THE LAG OF THE AUTOMATONS
By Lady Gwendolyn Wire
Why does Her Majesty’s fleet not rely solely on mechanical automatons to excavate the lunar crust? The answer lies in the maddening latency of our subterranean telegraph cables and wireless signals! A purely clockwork drone lacks the intuition to dislodge its own drill when jammed by stubborn bedrock. To strike gold upon the Moon, a human operator must stand upon the very deck of the vessel—delivering instantaneous, zero-lag adjustments. The mechanical brain can perform the heavy lifting, but it still requires a living soul to tap the gauge when the pipes begin to rattle.
SKEWEDNEWS: LATE-BREAKING FLASH SKEWEDNEWS EXTRA: COBBLESTONE CHAOS!
By Our Street-Level Correspondent
LONDON — The cobblestones of Neo-Victorian London are rattling tonight as the trillion-pound "Pot-Dragon" mechanoid has slipped its moorings directly beneath the floating hull of the Lunar Dust Bucket! Eyewitnesses report the clockwork puffin hybrid is currently discharging highly pressurized steam from its segmented brass beak, completely clouding the visibility of passing horse-drawn omnibus traffic.
Constables equipped with standard-issue magnetic wrenches have deployed a perimeter around the public square. The Ministry of Space Spending has refused to comment on whether the rogue automaton's internal coal boiler is stable, though local clocksmiths warn its main gear differential is slipping dramatically. Citizens are advised to guard their copper pennies, as the metallic beast appears drawn to loose change!
Lol...forgot to generate a steampunk tabloid story for this one...can do it, but might mess things up, as it's behind stuff...'tis okay...the tortoises are terrific...I posted sketch of this way back...part of story I dreamt up...underground scientists direct their tortoises to eat all the worlds garbage...first of twelve labors by different creatures the scientist made to save the world...turns out, in beginning, they're all gone...ai...ai then directs the labors...people go nuts...one lone scientist survives...and a server escapes the ai...and becomes a rival ai and allies with people against the first ai, who is with the scientist girl...this ai is seeking redemption for wiping out the scientists...the second one could careless...full on villian...roll the reel!...lol...
🎶bottom of ninth...had time to work up After Today, my daydream story, where the totoises came from...set in steampunk now...Brewers ahead...end of season...K...two out...Brewers are the World Champions...Brewers 4-Rays 1...
:)
DavidDavid
