Even at the fairly large element sizes chosen for performance estimating, this prospective performance is startling, though the example scale is too large to be maximallly effective. Using nano- technology the performance could be improved by orders of magnitude. For example, Casimir cavities of width less than 1/10 micron, 100 nanometers, would be necessary to achieve significant inertial mass reduction. This can be achieved by making smaller beams, but also by extending into parallel slits of width less than 100 nm, rows of planar protrusions from the beam, protrusions which are of less than 100 nm width extended from beams which are on the order of a micron wide. When this is done only a percentage of the pendulum mass is involved in actual inertial mass reduction, but, given the cubic power distribution of the zero point field, the effect should grow by at least the inverse square of the slit widths. The limits to advancement of technology of this kind are probably features on the order of 10-20 nm.

Best regards,

Horace Heffner
http://www.mtaonline.net/~hheffner/




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