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    KRONOTRAN

    Harry I Ringermacher 1/22/2009

    Topological Quantization of Electric ChargeHarry I. Ringermacher, G.E. Research Center, Schenectady, NY

    Definition of Electrodynamic Connection (H. Ringermacher, CQG, 11 , 2383 (1994) also seeSchrodinger, Space-Time Structure and J.A. Schouten, Ricci-calculus ):

    S S S

    = + +% contorsion tensor

    The effective torsion tensor of this connection is:1

    ( )2 2

    S v F

    = =% %

    2

    emc

    = (1)

    Generates correct Lorentz force Eqn. of motion

    0dv dv

    v v v v v F ds ds

    + = + =

    % (2)

    0 Dv a =where D is the absolute derivative under the Electrodynamic Connection and v is the 4-velocity of test charge, mass m, charge e and 1v v = .

    Given, EM field tensor as torsion along test charge path.

    2 F v S =

    (3)

    Definition of dual tensor :

    Let dx dx dx dx be area basis 2-form.

    1*2

    F F g = e.g. flat23

    01

    * F F = or

    1

    1* E B= and0 1

    2 3*( )dx dx dx dx=

    Integrate over dual 2-D surface .

    1 1* *( ) ( )2M M

    v S g dx dx F g dx dx

    = (4)Define g dx dx d where g g = , signature (+ - - -), and = 0,1,2,3.

    The RHS is Gausss law:

    2 3

    01 4M M

    F g dx dx E dA Q

    = = (5)Use Stokes theorem on LHS of (4):

    1 1* *( )M M

    v S d D v S d (6)

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    KRONOTRAN

    Harry I Ringermacher 1/22/2009

    Expanding RHS of (6), 0 Dv = from (2). That is, v passes through the exterior derivative leaving:1 * 4

    M

    v S dx d Q = (7)The Rund structure equation relates the covariant derivative of the torsion to curvature:

    12

    S dx dx dx R dx dx dx (8)

    Eq. (7) becomes:1 * 42 M

    v R dx d Q (9)Choose the test charge rest frame: 0 so that 0 1v .Requiring ( , ) = (0,1) corresponding to an E -field only in S (see eqn. (8)), yields for (9):

    0 1 01

    0101

    1 * 4M

    v R dx d Q

    =

    (10)Expanding the dual area element:

    1 2 30101

    00 11

    14

    R g dx dx dx Q

    g g

    =

    (11)The sectional curvature (Gaussian curvature )of the dual surface in the rest frame of the test chargeis (Ringermacher, Mead - JMP 05):

    01011

    00 11

    R K

    g g =

    Let Q ne= be the source charge in terms of the fundamental charge e .Let e be the positive definite fundamental unit of length.Defining the unit sphere through the r-integration, Eq. (11) becomes :

    1 2 3

    10

    14

    e

    dx K g dx dx ne

    = (12)

    The integral2 3

    1 4 (1 ) K g dx dx P

    = is the Gauss-Bonnet invariant. (13)P is the Genus or number of handles of the surface. Thus, from (12), 1n P = is an integer.

    Thus, charge has been identified as a topological property, the Genus of the surface surrounding thesingularity at the origin.

    (1 )Q P e=

    P = 0 P = 1 P = 2 Q = e Q = 0 Q = -e