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(19) · also written as a run, 19a xxx 19n

Pathway Channels

Also written longitudinal magnetic fields · multi-channel spiral divider · spiral channel pathway · spiral-divider cluster · pathway-channels · pathways

Where it is first named

To move more magnetic flux lines through said pickup coil-array (2a xxx 2n) while keeping said particle (3a xxx 3n) velocity constant, said Spiral Divider (9) of Figure 26F is now subdivided into many pathway channels (19a xxx 19n), as illustrated in Figure 26A sub-titled "Rotational Deflection."
— ELECTRICAL PARTICLE GENERATOR

How it is written

  • (19a xxx 19n) 7×
  • (19) 2×

19a xxx 19n is Meyer's shorthand for a run of the same thing: 19a is the first, 19n the last, and the x's stand for however many lie between. Every stage of the run is this one numeral.

Drawings 4

Where it is named · 9

ELECTRICAL PARTICLE GENERATOR 9×

  1. pathway channels (19a xxx 19n)

    To move more magnetic flux lines through said pickup coil-array (2a xxx 2n) while keeping said particle (3a xxx 3n) velocity constant, said Spiral Divider (9) of Figure 26F is now subdivided into many pathway channels (19a xxx 19n), as illustrated in Figure 26A sub-titled "Rotational Deflection."

    Read it there → · on Figure (26A)

  2. multi-channel spiral divider (19a xxx 19n)

    The multi-channel spiral divider (19a xxx 19n) is composed of any type of material (such as electrical steel M27) that will "NOT" become permanently magnetized (when exposed to said moving magnetic field (4)) when "shunting" said magnetic field (11a xxx 11n), as shown in Figure 26A sub-titled "Rotational Deflection."

    Read it there →

  3. spiral channel pathway (19)

    Since each spiral channel pathway (19) performs the same function as said pathway (1), many magnetic flow circuits (11a xxx 11n) are formed as to the number of said pathway channels (19a xxx 19n).

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  4. pathway channels (19a xxx 19n)

    Since each spiral channel pathway (19) performs the same function as said pathway (1), many magnetic flow circuits (11a xxx 11n) are formed as to the number of said pathway channels (19a xxx 19n).

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  5. longitudinal magnetic fields (19a xxx 19n)

    If more longitudinal magnetic fields (19a xxx 19n) are required... simply increase the number of pathway channels (19).

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  6. pathway channels (19)

    If more longitudinal magnetic fields (19a xxx 19n) are required... simply increase the number of pathway channels (19).

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  7. pathways (19a xxx 19n)

    To speed up said magnetic field spin (11a xxx 11n), simply increase the velocity of said magnetized fluid-medium (3a xxx 3n) traveling through said pathways (19a xxx 19n)... or vice versa.

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  8. spiral-divider cluster (19a xxx 19n)

    By increasing the number of turns (twist configurations) (25a xxx 25n of Figure 26F) per linear measurement of said spiral-divider cluster (19a xxx 19n) also increases said magnetic spin (4/11) still further once said fluid-velocity (4) is reached.

    Read it there → · on Figure (26F)

  9. pathway-channels (19a xxx 19n)

    The number of pathway-channels (19a xxx 19n) per spiral-divider (9) forming magnetic circuits (11a xxx 11n) per spiral-divider (9) spinning in a linear direction per 360 degrees (the number of magnetic fields formed per second).

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