The brain's world simulation

• The brain creates an immersive, real-time simulation of the world using an intricate web of neurons and EM fields.
• This simulation is computationally expensive but evolutionarily advantageous for survival and complex tasks.

Brain as a Non-Linear Optical Computer (BAANLOC)

• The BAANLOC theory posits that the brain leverages the EM field's properties for massive parallelism and self-organization.
• Different perceptual phenomena, like psychedelic visuals and spatial audio, can be explained by wave interactions within the brain.

Evidence supporting BAANLOC

• Psychedelic visuals demonstrate wave-like patterns, hinting at EM field involvement in perception.
• Auditory localization is efficiently solved by the brain using wave computing, outperforming conventional digital methods.

Mechanics of the EM world simulation

• Objects in our visual field are represented by patches of neurons with distinct electrostatic properties.
• Neurons' dynamic electrostatic properties influence how EM waves interact, creating the perception of distinct objects.

Electrostatic model of the self

• The self is perceived due to a denser electrostatic configuration in a patch of the neuronal substrate.
• Equalizing these configurations resembles experiences of non-self or enlightenment, common in meditative and psychedelic states.

Future research and implications

• The theory provides a cohesive explanation for various phenomena but requires further testing and validation.
• Future research could reveal the brain's EM field structures and their role in consciousness, potentially revolutionizing our understanding of the brain.