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The Sagnac Effect and the Chirality of Space Time

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The Sagnac Effect and the Chirality of Space Time

Prof. R. M. Kiehn, Emeritus

Physics, Univ. of Houston

www.cartan.pair.com

SPIE, San Diego Aug 25-30, 2007

This presentation consists of several parts

1. Fringes vs. Beats

This presentation consists of several parts

1. Fringes vs. Beats

2. The Sagnac effect and the

dual Polarized Ring Laser

This presentation consists of several parts

1. Fringes vs. Beats

2. The Sagnac effect and the

dual Polarized Ring Laser

3. The Chirality of the Cosmos

(And if there is time – a bit of heresy)

4. Compact domains of Constitutive

properties that lead to non-radiating

“Electromagnetic Molecules”

(And if there is time – a bit of heresy)

4. Compact domains of Constitutive

properties that lead to non-radiating

“Electromagnetic Molecules”

with infinite Radiation Impedance ?!

(And if there is time – a bit of heresy)

4. Compact domains of Constitutive

properties that lead to non-radiating

“Electromagnetic Molecules”

with infinite Radiation Impedance ?!

Or why an orbiting electron does not radiate

1a. Fringes vs. Beats

1 = e i(k1• r - 1 t)2 = e i(k2• r - 2 t)

Superpose two outbound waves k1 k2, 1 2

1a. Fringes vs. Beats

1 = e i(k1• r - 1 t)2 = e i(k2• r - 2 t)

Two outbound waves superposed: k = k1 - k2 = 1 - 2

1 + 2~2 cos(k•r/2 - ω•t/2)1

Fringes vs. Beats

1 = e i(k1• r - 1 t)2 = e i(k2• r - 2 t)

Two outbound waves superposed: k = k1 - k2 = 1 - 2

1 + 2=2 cos(k•r/2 - ω•t/2)1

Fringes are measurements of wave vector variations k(t = constant, r varies)

Fringes vs. Beats

1 = e i(k1• r - 1 t)2 = e i(k1• r - 2 t)

Two outbound waves superposed: k = k1 - k2 = 1 - 2

1 + 2=2 cos(k•r/2 - ω•t/2)1

Fringes are measurements of wave vector variations k(t = constant, r varies)

Beats are measurements of frequency variations: ω(r = constant, t varies)

Phase Velocity = /k = C/n

C = Lorentz Speed

n = index of refraction

Group Velocity = d/dk ~ /k

C/n /k

Outbound Phase

1 = e i(k1• r - 1 t)2 = e i(- k2• r + 2 t)

k =

k =

Note opposite orientations of Wave and phase vectors

Outbound Phase

1 = e i(k1• r - 1 t)2 = e i(- k2• r + 2 t)

k =

k =

Inbound Phase

3 = e i(k3• r + 3 t)4 = e i(- k4• r - 4 t)

k =

k =

Note opposite orientations of wave and phase vectors

Mix Outbound phase pairs

or Inbound phase pairs

for Fringes and Beats.

Mix Outbound with Inbound phase pairs

to produce Standing Waves.

Mix all 4 modes for

“Phase Entanglement”

Each of the phase modes has a 4 component

isotropic spinor representation!

1b. The Michelson Morley interferometer.

The measurement of Fringes

Most people with training in Optics know about the

Michelson-Morley interferometer.

The fringes require that the optical paths are equal to within a coherence length of the photons.

L = C • decay time ~ 3 meters for Na light

Many are not familiar with the use of within a coherence length of the photons.

multiple path optics (1887).

1c. The Sagnac interferometer. within a coherence length of the photons.

With the measurement of fringes (old)

The Sagnac interferometer encloses a finite area, within a coherence length of the photons.

The M-M interferometer encloses ~ zero area.

The Sagnac interferometer responds to rotation within a coherence length of the photons.

The M-M interferometer does not.

1d. The Sagnac Ring Laser interferometer. within a coherence length of the photons.

With the measurement of Beats (modern)

Has any one measured beats in a M M interferometer ??

Two beam (CW and CCW linearly polarized) within a coherence length of the photons.

Sagnac Ring with internal laser light source

Linear Polarized

Ring Laser

Polarization fixed by Brewster windows

Dual Polarized within a coherence length of the photons.

Ring Laser

Dual Polarized

Polarization beam splitters

4 Polarized beams –CWLH, CCWLH, CWRH, CCWRH

Sagnac Ring with internal laser light source

Ring laser - Early design within a coherence length of the photons.

Brewster windows for single linear polarization state

Rotation rate of the earth produces a beat signal of about 2-10 kHz depending on enclosed area.

More modern design of Ring Laser within a coherence length of the photons.

Hogged out Quartz monolithic design within a coherence length of the photons.

Ring Laser gyro built from 2-beam Ring lasers on 3 axes within a coherence length of the photons.

These aircraft use within a coherence length of the photons.(or will use) Ring Laser gyros

These missiles use Ring Laser gyros within a coherence length of the photons.

Aerospace devices use ring Laser gyros within a coherence length of the photons.

Under water devices use ring Laser gyros within a coherence length of the photons.

2. The Sagnac effect and Dual polarized Ring lasers. within a coherence length of the photons.

Dual Polarized Ring Lasers within a coherence length of the photons.

Non-reciprocal measurements with a

Q = ~ 1018

Better than Mossbauer

Dual Polarized Ring Lasers within a coherence length of the photons.

Non-reciprocal measurements with a

Q = ~ 1018

Better than Mossbauer

This technology has had little exploitation !!!

Non-Reciprocal Media. within a coherence length of the photons.

As this is a conference for Optical Engineers, who know that the speed of light can be different for different states of polarization, let me start out with the first, little appreciated, heretical statement:

Non-Reciprocal Media. within a coherence length of the photons.

As this is a conference for Optical Engineers, who know that the speed of light can be different for different states of polarization, let me start out with the first, little appreciated, heretical statement:

In Non-Reciprocal media,

the Speed of light not only depends upon polarization, but also depends upon the direction of propagation.

Non-reciprocal Media within a coherence length of the photons.

Faraday rotation or Fresnel-Fizeau

Consider Linearly polarized light passing through

Faraday

or Optical Active media

Non-reciprocal Media within a coherence length of the photons.

Faraday rotation or Fresnel-Fizeau

Consider Linearly polarized light passing through

Faraday

or Optical Active media

Exact Solutions given by E. J. Post 1962

These concepts stimulated a search for apparatus which could measure the effects of gravity on the polarization of an EM wave,

These concepts stimulated a search for apparatus which could measure the effects of gravity on the polarization of an EM wave,and ultimately to practical applications of a dual polarized ring laser.

Every one should read

E. J. Post

“The Formal Structure of Electromagnetics”

North Holland 1962 or Dover 1997

The Faraday Ratchet can accumulate tiny phase shifts from multiple to-fro reflections.

The hope was that such a device could capture the tiny effect of gravity on the polarization of the PHOTON.

The Faraday Ratchet can accumulate tiny phase shifts from multiple to-fro reflections.

The hope was that such a device could capture the tiny effect of gravity on the polarization of the PHOTON.

It was soon determined that classical EM theory would not give an answer to EM - gravity polarization interactions.

More modern design of dual polarized Ring Laser multiple to-fro reflections.

Technique multiple to-fro reflections.

Tune to a single mode.

If no intra Optical Cavity effects,

then get a single beat frequency

due to Sagnac Rotation.

Tune to a single mode. multiple to-fro reflections.

If no intra Optical Cavity effects,

then get a single beat frequency

due to Sagnac Rotation.

If A.O. and Faraday effects

are combined in the Optical Cavity,

then get 4 beat frequencies.

Conclusion multiple to-fro reflections.

The 4 different beams have

4 different phase velocities,

dependent upon

polarization and

propagation direction.

Experiments conducted by V. Sanders and R. M. Kiehn in 1977, using dual polarized ring lasers verified that the speed of light can have a 4 different phase velocities depending upon direction and polarization. The 4-fold Lorentz degeneracy can be broken.

Such solutions to the Fresnel Maxwell theory, subject to a gauge constraint, were published first in 1979. After patents were secured, the full theory of singular solutions to Maxwell’s equations without gauge constraints was released for publication in Physical Review in 1991.

R. M. Kiehn, G. P. Kiehn, and B. Roberds,

Parity and time-reversal symmetry breaking, singular solutions and Fresnel surfaces,

Phys. Rev A 43, pp. 5165-5671, 1991.

Examples of the theory are presented in the next slides, which shows the exact solution for the Fresnel Kummer singular wave surface for combined Optical Activity and Faraday Rotation.

Generalized Fresnel Analysis of Singular Solutions to Maxwell’s Equations (propagating photons)

Generalized Fresnel Analysis of Singular Solutions to Maxwell’s Equations (propagating photons)

Theoretical existence of 4-modes of photon propagation

as measured in the dual polarized Ring Laser.

The 4 modes correspond to: Maxwell’s Equations (propagating photons)

1. Outbound LH polarization

2. Outbound RH polarization

3. Inbound LH polarization

4. Inbound RH polarization

Fundamental PDE’s of Electromagnetism Maxwell’s Equations (propagating photons)

A review

Maxwell Faraday PDE’s

Maxwell Ampere PDE’s

Lorentz Constitutive Equations -- The Lorentz vacuum Maxwell’s Equations (propagating photons)

Substitute into PDE,s get vector wave equation

Phase velocity

EM from a Topological Viewpoint. Maxwell’s Equations (propagating photons)

USE EXTERIOR DIFFERENTIAL FORMS, NOT TENSORS

Exterior differential forms, A, F and G, carry topological information.

They are not restricted by tensor diffeomorphisms

For any 4D system of base variables

EM from a Topological Viewpoint. Maxwell’s Equations (propagating photons)

EM from a Topological Viewpoint. Maxwell’s Equations (propagating photons)

USE EXTERIOR DIFFERENTIAL FORMS, NOT TENSORS

Exterior differential forms, A, F and G, carry topological information.

They are not restricted by tensor diffeomorphisms

F is an exact and closed 2-Form, A is a 1-form of Potentials.

G is closed but not exact, 2-Form. J = dG, is exact and closed.

EM from a Topological Viewpoint. Maxwell’s Equations (propagating photons)

USE EXTERIOR DIFFERENTIAL FORMS, NOT TENSORS

Exterior differential forms, A, F and G, carry topological information.

They are not restricted by tensor diffeomorphisms/

F is an exact and closed 2-Form, A is a 1-form of Potentials.

G is closed but not exact, 2-Form. J = dG, is exact and closed.

Topological limit points are determined by exterior differentiation

dF = 0generatesMaxwell Faraday PDE’s

dG = J generatesMaxwell Ampere PDE’s

For any 4D system of base variables

EM from a Topological Viewpoint. Maxwell’s Equations (propagating photons)

dF = 0generatesMaxwell Faraday PDE’s

dG = J generatesMaxwell Ampere PDE’s

A differential ideal (if J=0) for any 4D system of base variables

EM from a Topological Viewpoint. Maxwell’s Equations (propagating photons)

dF = 0generatesMaxwell Faraday PDE’s

dG = J generatesMaxwell Ampere PDE’s

A differential ideal (if J=0) for any 4D system of base variables

Find a phase function 1-form: =kmdxm dt

Such that the intersections of the 1-form,,and the 2-forms vanish

^F = 0 ^G = 0

Also require that J =0.

^F = 0 Maxwell’s Equations (propagating photons)^G = 0 In Engineering Format become:

k × E − ωB = 0, k · B = 0,

k × H + ωD = 0, k · D = 0,

Six equations in 12 unknowns. !!

Need 6 more equations

The Constitutive Equations

Constitutive Equation examples Maxwell’s Equations (propagating photons)

Lorentz vacuum is NOT chiral, = 0

Constitutive Equation examples Maxwell’s Equations (propagating photons)

Generalized Complex Constitutive Matrix

Constitutive Equation examples Maxwell’s Equations (propagating photons)

Generalized Complex Constitutive Matrix

Generalized Complex Constitutive Equation

Chiral Constitutive Equation Examples Maxwell’s Equations (propagating photons)

Generalized Chiral Constitutive Equation

[ ] 0

[ ] Gamma is a complex matrix.

Chiral Constitutive Equation Examples Maxwell’s Equations (propagating photons)

Diagonal Chiral Constitutive Equation

Gamma is complex

Chiral Constitutive Equation Examples Maxwell’s Equations (propagating photons)

Diagonal Chiral Constitutive Equation

Gamma is complex

The real part of Gamma represents Fresnel-Fizeau effects.

The Imaginary part of Gamma represents Optical Activity

Chiral Constitutive Equation Examples Maxwell’s Equations (propagating photons)

Diagonal Chiral Constitutive Equation

The Wave Speed does not depend upon Fresnel Fizeau “Expansions”

(the real diagonal part).

The Wave Speed depends upon OA “expansions”,

(the imaginary diagonal part).

The Radiation Impedance depends upon both “expansions”.

Chiral Constitutive Equation Examples Maxwell’s Equations (propagating photons)

Fresnel-Fizeau “rotation” + diagonal Chiral “expansions”

Chiral Constitutive Equation Examples Maxwell’s Equations (propagating photons)

Fresnel-Fizeau “rotation” + diagonal Chiral “expansions”

Combination of Fresnel-Fizeau “rotation”, , about z-axis

and

Diagonal Optical Activity + Fresnel-Fizeau “expansion”, .

Chiral Constitutive Equation Examples Maxwell’s Equations (propagating photons)

Fresnel-Fizeau “rotation” + diagonal Chiral “expansions”

Combination of Fresnel-Fizeau “rotation”, , about z-axis

and

Diagonal Optical Activity + Fresnel-Fizeau “expansion”, .

WILL PRODUCE 4 PHASE VELOCITIES

depending on POLARIZATION and K vector

This Chiral Constitutive Equation Maxwell’s Equations (propagating photons)

Explains the Dual Polarized

Sagnac ring laser

Sagnac Effect Fresnel Surface Maxwell’s Equations (propagating photons)

The index of refraction has 4 distinct values depending upon direction and polarization.

Z axis: Index of refraction 4 roots =1/3 - 1/2

3. The Chirality of the Cosmos Maxwell’s Equations (propagating photons)

3. The Chirality of the Cosmos Maxwell’s Equations (propagating photons)

Definition of a chiral space

A chiral space is an electromagnetic system

of fields E, B, D, H

constrained by a complex 6x6 Constitutive Matrix

which admits solubility for a real phase function that satisfies both the Eikonal and the Wave equation.

3. The Chirality of the Cosmos Maxwell’s Equations (propagating photons)

Definition of a chiral space

A chiral space is an electromagnetic system

of fields E, B, D, H

constrained by a complex 6x6 Constitutive Matrix

which admits solubility for a real phase function that satisfies both the Eikonal and the Wave equation.

Hence any function of the phase function is a solution to the wave equation.

3. The Chirality of the Cosmos Maxwell’s Equations (propagating photons)

Definition of a chiral Vacuum

The chiral Vacuum is a chiral space

which is free from charge and current densities.

J = 0, = 0

3. The Chirality of the Cosmos Maxwell’s Equations (propagating photons)

Definition of a chiral Vacuum

The chiral Vacuum is a chiral space

which is free from charge and current densities.

Can the Cosmological Vacuum be Chiral ?

3. The Chirality of the Cosmos Maxwell’s Equations (propagating photons)

Definition of a chiral Vacuum

The chiral Vacuum is a chiral space

which is free from charge and current densities.

Can the Cosmological Vacuum be Chiral ?

Can the chirality be measured ?

The Lorentz Vacuum Maxwell’s Equations (propagating photons)

For the Lorentz vacuum, it is straight forward to show that there is no Charge-Current density and the fields satisfy the vector Wave Equation.

The Simple Chiral Vacuum Maxwell’s Equations (propagating photons)

For the Lorentz vacuum, it is straight forward to show that there is no Charge-Current density and the fields satisfy the vector Wave Equation.

Use Maple to solve more complicated cases: Maxwell’s Equations (propagating photons)

Six equations 12 unknowns

k x E - B = 0, k x H + D = 0

Use Constitutive Equation to yield 6 more equations

Define

Technique: Use constitutive equations to eliminate, say, D and B

This yields a 6 x 6 Homogenous matrix in 6 unknowns.

The determinant of the Homogeneous matrix must vanish

The determinant can be evaluated in terms of the 3 x 3 sub matrices of the 6 x 6 complex constitutive matrix and the anti-symmetric 3 x 3 matrix, [ n x ] composed of the vector, n = k /ω.The determinant formula is:

The general constitutive matrix can lead to tedious computations. A Maple program takes away the drudgery.

Conformal off-diagonal chiral matrices matrices of the 6 x 6 complex constitutive matrix and the anti-symmetric 3 x 3 matrix, [

Simplified (diagonal )

Constitutive matrix for a chiral Vacuum

- = + i
= 1 = 1

Conformal + Rotation chiral matrices matrices of the 6 x 6 complex constitutive matrix and the anti-symmetric 3 x 3 matrix, [

Simplified (diagonal + Fresnel rotation ) Constitutive matrix for a chiral Vacuum

Leads to Sagnac 4 phase velocities

Semi-Simplified Constitutive Matrix with Conformal + Rotation chiral submatrices

f = Fresnel Fizeau diagonal real part (“conformal expansion”)

ω = Fresnel Fizeau antisymmetric real part (“rotation”)

= Optical Activity antisymmetric imaginary part (“rotation”)

= Optical Activity diagonal imaginary part (“conformal expansion”)

The Rotation chiral submatricesWave Phase Velocity and the

Reciprocal Radiation Impedance

depend upon

the anti-symmetric rotations,

and the conformal factors of the

complex chiral (off diagonal) part

of the Constitutive Matrix.

The Rotation chiral submatricesWave Phase Velocity and the

Reciprocal Radiation Impedance

depend upon

the anti-symmetric rotations,

and the conformal factors of the

complex chiral (off diagonal) part

of the Constitutive Matrix.

(All isotropic conformal + rotation chiral matrices have a center of symmetry, unless the Fresnel rotation, ω, is not zero)

As an example of the algebraic complexity, the Rotation chiral submatricesHAMILTONIAN and ADMittance determinants are shown above for the semi-simplified case.

Fresnel Fizeau Conformal Rotation chiral submatrices f does not effect phase velocity

AO Conformal modifies phase velocity

Fresnel Fizeau Rotation modifies phase velocity

AO rotation modifies phase velocity

Fresnel Fizeau Conformal Rotation chiral submatrices f does not effect phase velocity

AO Conformal modifies phase velocity

Fresnel Fizeau Rotation modifies phase velocity

AO rotation modifies phase velocity

All factors give an effect on chiral admittance (cubed):

Fresnel Fizeau Conformal Rotation chiral submatrices f does not effect phase velocity

AO Conformal modifies phase velocity

Fresnel Fizeau Rotation modifies phase velocity

AO rotation modifies phase velocity

All factors give an effect on chiral admittance (cubed):

IN fact it is possible for the admittance ADM to be ZERO,

But this implies the radiation impedance

Z goes to infinity (not 376.73 ohms) !!!

The idea that chiral effects could cause the Admittance to go to Zero is startling to me.

Zero Admittance infinite Radiation Impedance, Z !

The idea that chiral effects could cause the Admittance to go to Zero is startling to me.

Zero Admittance infinite Radiation Impedance, Z !

Can this idea impact antenna design?

And now some heresy go to Zero is startling to me.

Zero Admittance go to Zero is startling to me. infinite impedance

Zero Admittance go to Zero is startling to me. infinite impedance

What would be the effects of a chiral universe on Cosmology ???

?

Zero Admittance go to Zero is startling to me. infinite impedance

What would be the effects of a chiral universe on Cosmology ???

Is the Universe Rotating as well as Expanding ?

Zero Admittance go to Zero is startling to me. infinite impedance

What would be the effects of a chiral universe on Cosmology ???

Is the Universe Rotating as well as Expanding ?

Could the chiral effect be tied to dark matter -- where increased radiation impedance causes compact composites to bind together more than would be expected ??

Zero Admittance go to Zero is startling to me. infinite impedance

What would be the effects of a chiral universe on Cosmology ???

Is the Universe Rotating as well as Expanding ?

Could the chiral effect be tied to dark matter -- where increased radiation impedance causes compact composites to bind together more than would be expected ??

-- Could the infinite radiation impedance be tied to compact composites such as molecules and atoms which do not Radiate ?

Hopefully these questions will be addressed on Cartan’s Corner

Optical Black Holes in a swimming pool

http://www.cartan.pair.com

Some Examples from Maple Corner

Real f = 0, Cornerω = 0 Imag = 1/3, = 0

Real f = 0, Cornerω = 0 Imag = 0, = 2

Real f = 0, Cornerω = 0 Imag = 1/3, = 1/3

The 4-mode Sagnac Effect - with No center of symmetry Corner

Real ω = 1/3, f = 0, Imag = 1/6, = 0

Ebooks – CornerPaperback, or Free pdfhttp://www.lulu.com/kiehn orhttp://www.cartan.pair.comemail: [email protected]

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