@misc{cogprints5955,
          volume = {6},
          number = {1},
           month = {March},
          author = {Huping Hu and Maoxin Wu},
          editor = {Dr. Sultan Tarlaci},
           title = {Concerning Spin as Mind-pixel: How Mind Interacts with the Brain through Electric Spin Effects},
       publisher = {NeuroQuantology},
            year = {2008},
         journal = {NeuroQuantology},
           pages = {26--31},
        keywords = {spin, mind-pixel, electric spin effect, spin transverse force, Dirac-Hestenes electric dipole, electric field, proactive spin},
             url = {http://cogprints.org/5955/},
        abstract = {Electric spin effects are effects of electric fields on the dynamics/motions of nuclear/electron spins and related phenomena. Since classical brain activities are largely electric, we explore here a model of mind-brain interaction within the framework of spin-mediated consciousness theory in which these effects in the varying high-voltage electric fields inside neural membranes and proteins mediate mind-brain input and output processes. In particulars, we suggest that the input processes in said electric fields are possibly mediated by spin transverse forces and/or Dirac-Hestenes electric dipoles both of which are associated with the nuclear/electronic spin processes. We then suggest that the output processes (proactive spin processes) in said electric fields possibly involve Dirac negative energy extraction processes, shown by Solomon, and also Dirac-Hestenes electric dipole interactions of nuclei/electrons besides non-local processes driven by quantum information. We propose that these output processes modulate the action potentials, thus influencing the brain, by affecting the cross-membrane electric voltages and currents directly and/or indirectly through changing the capacitance, conductance and/or battery in the Hudgkin-Huxley model. These propositions are based on our own experimental findings, further theoretical considerations, and studies reported by others in the fields of spintronics, high-energy physics and alternative energy research.}
}

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