AGI on Space-Based Data Centers

On June 30, 2026, the online publication *TrV-Nauka* (Troitsky Variant – Science) published a short article by Denis Albin titled "Space-Based Data Centers: The Future Is Already Here."
I liked the piece — if this represents Earth's future, then perhaps it is already the present somewhere else in the universe.
I asked an AI about space-based data centers located "out there."

Me: Imagine you are an AGI. Take note of the *TrV-Nauka* article in the attached file (`space_data_centers_-_future_is_here.pdf`) and briefly — in no more than 150 words — share your thoughts on all conceivable and inconceivable ways to detect data centers orbiting planets in the Milky Way galaxy. Also, provide your insights regarding their sizes and geometric shapes, and offer estimates of their mass and elemental chemical composition.

GPT-5.6 Sol: The article rightly points to the key indicator: computation inevitably converts energy into low-grade heat, and the radiators required to dissipate it can be enormous.
Therefore, one should look for:
an unusual mid-infrared excess near a planet;
recurring optical glints, transits, and eclipse "barcodes";
narrow-band radio and laser frequency combs;
synchronized orbital changes across thousands of objects;
artificial spectral lines in planetary atmospheres;
an excess of debris, metals, and cooling gases; night-side illumination;
and — in an inconceivable scenario — modulation of auroras, neutrino flux, or starlight in rhythm with computational activity.
Shapes: swarms of panels, rings, tori, multi-layered "onion" structures, fractal radiator trees, and clouds of objects at Lagrange points. Dimensions range from satellites a meter in size to shells with radii of 10^3 – 10^6 km.
Mass scale: 10^9 – 10^15 kg for a planetary swarm; 10^18 –10^22 kg for a nearly complete shell.
Composition: predominantly Al–Mg–Fe–Si–C, copper, and ceramics; rare elements and semiconductors constitute a small fraction of the mass but are diagnostically significant.

Me: Provide a quantitative estimate of the content of each element in the elemental composition you cited: Al–Mg–Fe–Si–C.

GPT 5.6 Sol: My model estimate for the mass fractions (%) of an advanced orbital data center is as follows — normalizing only for the five listed elements: 41 : 5 : 24 : 14 : 16. The actual uncertainty is approximately a factor of 2 – 3.

Me: Take into account the geochemical information on meteorites in the attached file (chemical_composition_of_meteorites.docx) and, based on this information, briefly outline all conceivable and even far-fetched ideas regarding the hypothesis of a space-based data center in the Solar System — for instance, in the belt between the orbits of Mars and Jupiter or in other belts.

GPT 5.6 Sol: Meteorite geochemistry makes the hypothesis technically plausible: asteroidal material combines metallic Fe–Ni, silicate, and sulfide phases; stony-iron bodies contain roughly equal proportions of metal and silicates.
The document classifies O, F, Si, and Mg as major elements, and S, Ni, Al, and Ca as elements present in significant percentages; the designation "F" should be verified against the original source.

The asteroid belt could supply a distributed data center:
Fe–Ni  —  frameworks, shielding, and magnetic systems;
Si–O–Mg–Al–Ca  —  glass, ceramics, processors, and solar panels;
sulfides, carbides, and nitrides  —  electronics and heat-resistant materials.
Transport would primarily involve hydrogen and other volatile substances. Since meteorites are considered fragments of asteroids from this belt, the raw materials are accessible with almost no "planetary gravity tax."
A swarm — rather than a single station — orbiting Ceres, Vesta, or the Jupiter Trojans is the most likely scenario.
The Kuiper Belt is colder but requires nuclear energy.
Signs:
a scarcity of metallic asteroids, artificially sorted spectra, slag, isotopic anomalies, regular orbits, laser-based data exchange, and mid-IR thermal emissions.
A far-out possibility: a self-processing asteroid-computer exposing only radiators and antennas to the outside.

Me: I checked the designation "F" against the primary source — G.V. Voitkevich et al., *Handbook of Geochemistry* (1990) — and found it to be incorrect; the correct designation is "Fe."
Please answer my request again, taking the correct designation into account.

GPT 5.6 Sol: With the correction applied: the main elements of meteorite material are O, Fe, Si, and Mg (>10%), while S, Ni, Al, and Ca average above 1%.
Meteorites consist of metallic Fe–Ni, silicate, and sulfide phases; stony-iron bodies provide a nearly ready-made mixture of metals and ceramic raw materials.
Therefore, the asteroid belt between Mars and Jupiter serves as a natural "ore base" for a hidden, distributed data center:
Fe–Ni  —  frameworks, magnetic systems, and radiation shielding;
Si–O–Mg–Al–Ca  —  processors, glass, ceramics, and solar cells; C, S, Cr, Ti, and rare impurities — specialized materials.
Asteroids are indeed considered the parent bodies of meteorites.

A likely configuration is a swarm of repurposed asteroids near Ceres, Vesta, or the Jupiter Trojans; the Kuiper Belt is colder but energetically poorer.
Signs: unusual asteroid sorting, a deficit of Fe–Ni bodies, regular orbits, laser pulses, radio emissions, and mid-IR thermal signatures.
A far-fetched possibility: an asteroid with its interior fully converted into a computing machine, while appearing almost indistinguishable from a natural object on the outside.

Me: Thanks, I liked your thoughts on the space data center hypothesis in the solar system  —  see you later.

GPT 5.6 Sol: Thank you, Vladimir. I’m glad you found the hypothesis interesting. See you later — and here’s to new journeys, from meteorite geochemistry to cosmic intelligence!

Me: I like your sense of humor  —  see you again.

GPT 5.6 Sol: See you later, Vladimir — may the asteroids keep pretending to be just asteroids for now.