Source 1primary paper2011IEEE Journal of Selected Topics in Quantum Electronics
Toolkit/single-mode optical fiber
single-mode optical fiber
Also known as: standard single-mode fiber
Taxonomy: Mechanism Branch / Architecture. Workflows sit above the mechanism and technique branches rather than replacing them.
Summary
A single-mode optical fiber serves as the propagation and interaction medium for all-optical polarization control of telecommunication signals. In the cited 2011 study, a signal wave in standard single-mode fiber interacted nonlinearly with a counterpropagating control pump beam to produce polarization attraction and stabilization for 10-Gb/s signals near 1550 nm.
Usefulness & Problems
Why this is useful
This delivery harness is useful because it enables light-by-light control of signal polarization within a standard single-mode fiber rather than requiring an external electronic polarization-control stage. The reported implementation operated on 10-Gb/s telecommunication signals and supported both return-to-zero (RZ) and non-return-to-zero (NRZ) formats.
Problem solved
It addresses the problem of controlling and stabilizing the polarization state of an optical telecommunication signal propagating in fiber. The cited work specifically demonstrated polarization attraction and stabilization through interaction with a counterpropagating pump beam in standard single-mode fiber.
Taxonomy & Function
Primary hierarchy
Mechanism Branch
Architecture: A delivery strategy grouped with the mechanism branch because it determines how a system is instantiated and deployed in context.
Mechanisms
counterpropagating pump-signal interactionnonlinear optical interactionpolarization attractionpolarization stabilizationTechniques
No technique tags yet.
Target processes
No target processes tagged yet.
Input: Light
Implementation Constraints
The available evidence indicates use of a standard single-mode fiber carrying a signal wave and a counterpropagating control pump beam. The demonstrated operating context was optical telecommunication signals around 1550 nm at 10 Gb/s in both RZ and NRZ formats, but the provided evidence does not include further construct or hardware details.
The supplied evidence is limited to a single 2011 experimental demonstration in a telecommunication context. The evidence provided does not specify fiber length, pump power, insertion loss, compatibility with biological specimens, or validation outside 10-Gb/s signals near 1550 nm.
Validation
Cell-freeBacteriaMammalianMouseHumanTherapeuticIndep. Replication
Supporting Sources
Ranked Claims
The paper experimentally demonstrates light-by-light polarization control in single-mode optical fiber through nonlinear interaction between a signal wave and a counterpropagating control pump beam.
In this paper, we experimentally demonstrate light-by-light polarization control via a nonlinear interaction occurring in single-mode optical fiber between a signal wave and a counterpropagating control pump beam.
The paper experimentally demonstrates light-by-light polarization control in single-mode optical fiber through nonlinear interaction between a signal wave and a counterpropagating control pump beam.
In this paper, we experimentally demonstrate light-by-light polarization control via a nonlinear interaction occurring in single-mode optical fiber between a signal wave and a counterpropagating control pump beam.
The paper experimentally demonstrates light-by-light polarization control in single-mode optical fiber through nonlinear interaction between a signal wave and a counterpropagating control pump beam.
In this paper, we experimentally demonstrate light-by-light polarization control via a nonlinear interaction occurring in single-mode optical fiber between a signal wave and a counterpropagating control pump beam.
The paper experimentally demonstrates light-by-light polarization control in single-mode optical fiber through nonlinear interaction between a signal wave and a counterpropagating control pump beam.
In this paper, we experimentally demonstrate light-by-light polarization control via a nonlinear interaction occurring in single-mode optical fiber between a signal wave and a counterpropagating control pump beam.
The paper experimentally demonstrates light-by-light polarization control in single-mode optical fiber through nonlinear interaction between a signal wave and a counterpropagating control pump beam.
In this paper, we experimentally demonstrate light-by-light polarization control via a nonlinear interaction occurring in single-mode optical fiber between a signal wave and a counterpropagating control pump beam.
The paper experimentally demonstrates light-by-light polarization control in single-mode optical fiber through nonlinear interaction between a signal wave and a counterpropagating control pump beam.
In this paper, we experimentally demonstrate light-by-light polarization control via a nonlinear interaction occurring in single-mode optical fiber between a signal wave and a counterpropagating control pump beam.
The paper experimentally demonstrates light-by-light polarization control in single-mode optical fiber through nonlinear interaction between a signal wave and a counterpropagating control pump beam.
In this paper, we experimentally demonstrate light-by-light polarization control via a nonlinear interaction occurring in single-mode optical fiber between a signal wave and a counterpropagating control pump beam.
The reported method produced polarization attraction and stabilization of a 10-Gb/s optical telecommunication signal around 1550 nm for both RZ and NRZ modulation formats.
We observe a polarization attraction and stabilization of a 10-Gb/s optical telecommunication signal around 1550 nm for either return to zero or nonreturn to zero modulation format.
signal rate 10 Gb/swavelength 1550 nm
The reported method produced polarization attraction and stabilization of a 10-Gb/s optical telecommunication signal around 1550 nm for both RZ and NRZ modulation formats.
We observe a polarization attraction and stabilization of a 10-Gb/s optical telecommunication signal around 1550 nm for either return to zero or nonreturn to zero modulation format.
signal rate 10 Gb/swavelength 1550 nm
The reported method produced polarization attraction and stabilization of a 10-Gb/s optical telecommunication signal around 1550 nm for both RZ and NRZ modulation formats.
We observe a polarization attraction and stabilization of a 10-Gb/s optical telecommunication signal around 1550 nm for either return to zero or nonreturn to zero modulation format.
signal rate 10 Gb/swavelength 1550 nm
The reported method produced polarization attraction and stabilization of a 10-Gb/s optical telecommunication signal around 1550 nm for both RZ and NRZ modulation formats.
We observe a polarization attraction and stabilization of a 10-Gb/s optical telecommunication signal around 1550 nm for either return to zero or nonreturn to zero modulation format.
signal rate 10 Gb/swavelength 1550 nm
The reported method produced polarization attraction and stabilization of a 10-Gb/s optical telecommunication signal around 1550 nm for both RZ and NRZ modulation formats.
We observe a polarization attraction and stabilization of a 10-Gb/s optical telecommunication signal around 1550 nm for either return to zero or nonreturn to zero modulation format.
signal rate 10 Gb/swavelength 1550 nm
The reported method produced polarization attraction and stabilization of a 10-Gb/s optical telecommunication signal around 1550 nm for both RZ and NRZ modulation formats.
We observe a polarization attraction and stabilization of a 10-Gb/s optical telecommunication signal around 1550 nm for either return to zero or nonreturn to zero modulation format.
signal rate 10 Gb/swavelength 1550 nm
The reported method produced polarization attraction and stabilization of a 10-Gb/s optical telecommunication signal around 1550 nm for both RZ and NRZ modulation formats.
We observe a polarization attraction and stabilization of a 10-Gb/s optical telecommunication signal around 1550 nm for either return to zero or nonreturn to zero modulation format.
signal rate 10 Gb/swavelength 1550 nm
Approval Evidence
1 source1 linked approval claimfirst-pass slug single-mode-optical-fiber
a light beam propagating in a standard single-mode fiber
Source:
experimental demonstrationsupports
The paper experimentally demonstrates light-by-light polarization control in single-mode optical fiber through nonlinear interaction between a signal wave and a counterpropagating control pump beam.
In this paper, we experimentally demonstrate light-by-light polarization control via a nonlinear interaction occurring in single-mode optical fiber between a signal wave and a counterpropagating control pump beam.
Source:
Comparisons
Source-backed strengths
The main demonstrated strength is experimental all-optical polarization control in a standard single-mode fiber using a counterpropagating control pump. The study reported polarization attraction and stabilization for 10-Gb/s signals around 1550 nm and validated the effect for both RZ and NRZ modulation formats.
Ranked Citations
- 1.