Question 1

What does it mean to say the brain is a "self-organizing" system?

Accepted Answer

Self-organization refers to the brain's ability to create complex, orderly patterns of activity without a central "boss" or master neuron directing every cell. Much like a flock of birds moving in perfect sync without a leader, the brain uses its physical connections—the functional connectome—to create "attractors." These attractors are specific patterns of neural activity that the brain naturally gravitates toward, allowing 100 billion neurons to coordinate into meaningful thoughts rather than random noise.

Question 2

What are "attractor states" and how do they influence our thoughts?

Accepted Answer

Attractor states can be visualized as "valleys" or "grooves" in a mental landscape. When the brain’s activity begins, it naturally "flows" into these stable valleys. These states represent different mental modes, such as a "resting state" or a "problem-solving state." The brain stays organized by making these attractors "orthogonal," meaning they are mathematically distinct and do not overlap. This ensures that when the brain is in one state, such as "performing a task," it doesn't accidentally trigger a different, unrelated state.

Question 3

How do "noise" and "chemicals" affect the brain's landscape?

Accepted Answer

The brain is "stochastic," meaning it possesses a constant jiggle of energy or "noise" that prevents us from getting stuck in a single thought forever. This noise provides the "kick" necessary to push our mental "marble" out of one valley and into another. Additionally, chemicals called neuropeptides act like the "weather" or "atmosphere" of the brain. Unlike fast-acting neurotransmitters, neuropeptides diffuse slowly and can change the "depth" or "friction" of the valleys, making certain mental states—like anxiety or calm—easier or harder to exit.

Question 4

Can we actually change the "geometry" of our own minds?

Accepted Answer

Yes, through a process described as "mental gardening" or "landscaping," humans can influence their neural trajectories. Because the brain follows a "predictive coding-based learning rule," consistently practicing certain mental states—like focus or gratitude—actually deepens those specific "valleys" over time, making them the most energy-efficient paths for the brain to take. We can also use "environmental nudges," such as changing our surroundings or practicing cognitive shifts, to push our mental activity out of negative, "sticky" attractors and back toward a healthy resting state.

Question 5

How does this perspective explain conditions like chronic pain or autism?

Accepted Answer

This framework views these conditions as "different geometries" rather than "broken parts." In chronic pain, the "pain valley" may become so deep that the brain’s activity struggles to roll back to the "home" or resting state, even after the physical injury has healed. In the case of autism, research suggests that the "flow fields" or "currents" that pull the brain toward certain states, such as social processing, might be shaped differently, leading the brain to spend more or less time in specific attractor basins compared to a typically developing brain.

The brain is more active than you think

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