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27.5 W/m² collection efficiency solar laser using a diffuse scattering cooling liquid: erratum.

C J C Smyth, S Mirkhanov, A H Quarterman

|April 1, 2020

Summary

This erratum corrects a previous paper by clarifying the solar spectrum used in numerical modeling. New results with the full solar spectrum confirm theoretical absorption predictions for Nd:YAG rods.

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Area of Science:

Optics and Photonics
Materials Science

Background:

A previous publication used a truncated solar spectrum (max 830 nm) in numerical modeling without explicit mention.
This omission affected the accuracy of reported absorption in Nd:YAG rods.

Purpose of the Study:

To correct and clarify the methodology of a previously published paper.
To present accurate numerical modeling of absorption in Nd:YAG rods using the full solar spectrum.

Main Methods:

Numerical modeling of absorption in a Neodymium-doped Yttrium Aluminum Garnet (Nd:YAG) rod.
Simulation of absorption as a function of diffuse reflectivity of chamber walls.
Utilizing the complete solar spectrum in the revised modeling.

Main Results:

The study presents a graph illustrating absorption in the Nd:YAG rod versus diffuse reflectivity.
Revised modeling using the full solar spectrum confirms previous theoretical predictions.
The predicted maximum possible absorption aligns with established literature values.

Conclusions:

The erratum corrects a methodological oversight regarding the solar spectrum used.
Accurate modeling with the full solar spectrum validates the predicted absorption characteristics of Nd:YAG rods.
This clarification ensures greater accuracy and reliability of the published research findings.