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Chiao and Wu predict geometric polarization rotation in helical optical fibers

Chiao and Wu applied the geometric phase of adiabatically transported helicity to photons guided along a curved path. For a closed momentum-space circuit they related the helicity-dependent phase to the enclosed solid angle, and proposed optical-fiber interferometry and polarization rotation as observable manifestations.

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What is recorded here?

Chiao and Wu applied the geometric phase of adiabatically transported helicity to photons guided along a curved path. For a closed momentum-space circuit they related the helicity-dependent phase to the enclosed solid angle, and proposed optical-fiber interferometry and polarization rotation as observable manifestations.

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Scientific scope

The argument assumes a smoothly varying single-mode waveguide and preserved helicity, with negligible linear birefringence and cross-sectional ellipticity. Ordinary optical activity contributes an additional dynamical rotation and must be accounted for. The geometrical angle is unchanged by path deformation only when the enclosed solid angle is preserved; it is not independent of arbitrary deformations. The paper reports a later experimental verification in a note added, but this theory article does not itself supply the experimental data.

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People and systems

Raymond Y. Chiao; Yong-Shi Wu

These are the listed authors of the cited contribution sources. Paper authorship does not quantify individual effort. An incomplete list is explicitly marked; same names are not automatically merged.

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English catalogue narrative

Chiao and Wu predict geometric polarization rotation in helical optical fibers

Chiao and Wu applied the geometric phase of adiabatically transported helicity to photons guided along a curved path. For a closed momentum-space circuit they related the helicity-dependent phase to the enclosed solid angle, and proposed optical-fiber interferometry and polarization rotation as observable manifestations.

Scientific scope

The argument assumes a smoothly varying single-mode waveguide and preserved helicity, with negligible linear birefringence and cross-sectional ellipticity. Ordinary optical activity contributes an additional dynamical rotation and must be accounted for. The geometrical angle is unchanged by path deformation only when the enclosed solid angle is preserved; it is not independent of arbitrary deformations. The paper reports a later experimental verification in a note added, but this theory article does not itself supply the experimental data.

Reading status

This is a source-linked WRS catalogue note. A full explanatory guide and independent scientific reconstruction have not been completed for this entry. Read the identified original work for its complete narrative and arguments.

People and systems

Raymond Y. Chiao; Yong-Shi Wu

These are the listed authors of the cited contribution sources. Paper authorship does not quantify individual effort. An incomplete list is explicitly marked; same names are not automatically merged.

Original sources