AI-directed planetary repair / 2041

Grow what Earth forgot.

A luminous AI-designed fungal coral culture inside an orbital bioreactor
Specimen MYC—118
Adaptive mesh active
Toxicity target
Hg / Pb / Cd
Move pointer to inspect living tissue
[ 00—01 ]

An AI biofoundry that designs luminous fungal ecosystems to metabolize toxic soil—and return dead industrial land to life.

culture resolution012 × 007
The organism is the interface

Most remediation excavates poisoned soil and moves it somewhere else. We train living networks to digest the problem in place.

Explore protocol→

We don't restore nature. We teach it new tricks.

Live culture compiler

One mesh.
Millions of decisions.

Feed us a soil scan. MYC Core simulates 8.4 million fungal genomes, then prints a living remediation culture tuned to the exact chemistry of your site.

Mercury sponge / MYC—118Compiling phenotype...
Absorption rate94.8%
Mesh radius18.6 KM
Mutation risk0.003
Genome candidates8.4M
Design cycle09:18
Carbon drawdown+31%
Four-stage living protocol

Scan.Breed.Release.

[ 001 ]Field topology

Map the poison.

Drone hyperspectral scans and micro-bore samples become a spatial chemistry model: every heavy metal plume, hydrocarbon pocket and water pathway in one living map.

[ 002 ]Genome search

Evolve the appetite.

MYC Core explores millions of safe phenotype combinations and searches for the exact enzymatic pathways able to bind, digest or isolate the target contaminants.

[ 003 ]Culture print

Print a living mesh.

Robotic bioreactors grow kilometer-scale starter cultures inside biodegradable lattice capsules—ready to root themselves into industrial soil.

[ 004 ]Closed-loop care

Let the site learn.

Embedded biosensors report metabolism in real time. The model adjusts hydration, nutrient pulses and mesh expansion until toxicity falls below ecological thresholds.

Field organisms / active

Beauty with a job.

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Bioluminescent mercury-remediation culture

Kaskelen Mercury Bloom

Former electroplating corridor · 42 hectares

−91% bioavailable Hg
AI-designed culture adapted to petrocarbon soil

Caspian Petro-Lace

Decommissioned refinery basin · 119 hectares

14 month cycle
Luminous salt remediation culture

Aral Salt Veil

Windborne saline margin · 67 hectares

+38% soil retention
Fungal culture for mine tailings

Altai Copper Choir

Mine tailing shelf · 204 hectares

3 species returned
Proof from the ground up

A dead hectare should not stay dead for three generations.

0%

reduction in bioavailable heavy metals across pilot cultures

0mo

average time from contaminated soil to stable ecological substrate

0×

less embodied carbon than excavation-and-landfill remediation

The ground is ready

Give wastean appetite.

Open live compiler→