Remote Viewing: A Look in the Speed of Particular Neurons.

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  • Опубликовано: 15 янв 2025

Комментарии • 5

  • @GloxGlox-nl4cd
    @GloxGlox-nl4cd 19 дней назад

    Thanks, good to see your post👌

  • @machinethesun9243
    @machinethesun9243 17 дней назад

    @Edward, have you listened to the telepathy tapes... how the non verbal severe autistic kids are telepathic; how they "meet" others like them on the hill on another dimension; how they can see and read through their mother's eyes? The neurologist in the telepathy tapes, thinks they have these abilities because of how their brains get neuralogically wired as an adaptation because they can't talk and have no way to communicate because of how severe their disability is. They can see perfectly what's written on cards in another room. They can read when they've not been taught. They know subjects they've never been exposed to, including languages, complex math, etc. Would love to hear your thoughts on them.

    • @GenericScreenName808
      @GenericScreenName808 13 дней назад

      I’m certain this is a psyop, idk maybe to put a positive spin on taking a shot? Idk but how this is being pushed on us doesn’t pass the smell test

  • @mscir
    @mscir 18 дней назад

    I'm not sure what your intention was when you asked about the speed, there's the phyical speed nd there's the related electromagnetic force / field speed, and they're very different. From Chat GPT
    EMFs propagate faster than the physical drift velocity of the electrons in a conductor.
    When an electrical signal is applied to a conductor (like a copper wire), the resulting electromagnetic wave propagates through the medium at a speed close to the speed of light in that medium. For most conductors, this speed is a significant fraction of the speed of light in a vacuum.
    The actual motion of electrons within a conductor is much slower. This drift velocity is typically on the order of millimeters to centimeters per second in common circuits. It depends on factors such as the current, cross-sectional area of the conductor, and electron density.