    In part this discrepancy appears to relate to far greater
    sensitivities to low-frequency EM fields [EW: ELF, that is, the
    "entrainment" frequencies] and to RF fields with low-frequency
    amplitude-modulation [EW: this includes radar hearing signals]
    than to imposed step functions or DC gradients [EW: common
    with contact electrodes, not of interest in mind control at a
    distance] used in many electrochemical experiments and models
    to test levels of cooperativity in biological systems.
    (Blank, 1972)

    [EW: In plain language, both entrainment (ELF) fields and
    pulsating radar-like (RF) fields are a hell of a lot more
    influential on cells than some experimental work using DC
    and electrode methods.]

    Page 95:

    [EW: This section is not part of the demonstration that EM
    signals can be biologically amplified, as above.  It's main
    interest is that a magnetophosphene "gun" was under consider-
    ation by the U.S. National Institute of Justice in 1993, along
    with a "fever" gun and a "convulsion" gun, both using micro-
    wave technology.  As of 1999, nothing has been heard from NIJ
    on this development, however, page 95 here suggests that such
    a microwave weapon is feasible.]

    Magnetophosphenes

    An effect of time-varying magnetic fields on humans was first
    described by d'Arsonval (1896) [EW: Anyone doubt there has
    been some progress since 1896?] is the induction of a flicker-
    ing illumination within the visual field field known as
    magnetophosphenes.  This phenomenon occurs as an immediate
    response to stimulation by either pulsed or sinusoidal magnetic
    fields with frequencies less than 100 Hz, and the effect is
    completely reversible with no apparent influence on visual
    acuity.  The maximum visual sensitivity to sinusoidal magnetic
    fields has been found at a frequency of 20 Hz in human subjects
    with normal vision.

    [EW: Radio signals are a combination of electric and magnetic
    fields.  To radiate a 20 Hz signal would require such huge
    antennas that it is impractical to do so.  I'd recommend that
    if someone has the facilities and skills, I'd try some VHF (or
    microwave) pulsing at 20 Hz on an RF carrier at, say, the 2-meter
    (144-148 MHz) ham band with a duty cycle, say, of 20% pulse-ON
    time.]

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