The goo that binds us: how field resonance solves neuroscience's binding and criticality problems

Area of Science:

• Neuroscience
• Computational Neuroscience
• Electrophysiology

Background:

• The binding problem and neural criticality are persistent challenges in neuroscience.
• Current computational approaches struggle to explain unified consciousness and optimal brain function.
• A dichotomy exists between discrete (prickly) and continuous (gooey) models of neural processing.

Purpose of the Study:

• To propose an electromagnetic field hypothesis as a unified solution to the binding and criticality problems.
• To challenge the "prickly" computational bias in neuroscience.
• To explore the implications of a
• gooey
• field-based perspective for understanding cognition and consciousness.

Main Methods:

• Drawing on Alan Watts' philosophical dichotomy.
• Applying the electromagnetic field hypothesis to explain neural phenomena.
• Citing new evidence on electromagnetic field influence on neural spike timing.

Main Results:

• Electromagnetic fields offer natural solutions to spatial and temporal binding via cross-frequency coupling.
• Field propagation explains neural criticality through volumetric dynamics, not synaptic fine-tuning.
• Evidence shows electromagnetic fields causally entrain neural spike timing at low thresholds.
• The speed of ephaptic field propagation (50 km/s) supports rapid neural integration for consciousness.

Conclusions:

• The electromagnetic field hypothesis provides a unified framework for understanding consciousness and neural criticality.
• Cognition and consciousness are better described as continuous electromagnetic field dynamics than discrete computational events.
• A
• gooey
• field-centric view offers a more parsimonious explanation for complex brain functions.