Small mind. Six sides.

Published cells.
A designed circuit.

Six published Allen Institute GLIF3 mouse neuron models are repeated as 4,096 simulated cell instances. Each cell’s membrane voltage and after-spike currents are numerically integrated using the fitted parameters.

The connections are engineered for this experiment. The point cloud is a schematic layout, not a reconstruction of a complete mouse brain. Its brightness follows calculated spikes.

A planner chooses.
The circuit moves.

A classical cube solver chooses a sequence of legal turns. That plan becomes neural input. The spiking motor populations control the execution and timing of the mouse’s movements.

This circuit has not learned to solve a cube. You can test its role directly: silence it during a turn and the movement stops. Restore the circuit and the motor task continues.

Voltage gaps mark the fitted spike-cut interval; GLIF3 does not simulate an action-potential waveform. The raster shows a sample of cells.