Experimental validation of photonic lantern imaging and wavefront sensing performance

Fuente: arXiv
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Main Authors: Sengupta, Aditya R., Chambouleyron, Vincent, Diaz, Jordan, DeMartino, Matthew, Jensen-Clem, Rebecca, Gerard, Benjamin L., Messerly, Michael J., Pax, Paul, Dillon, Daren, Bundy, Kevin, Cuevas, Maria, Cetre, Sylvain, Macintosh, Bruce, Dobias, Caleb, Crowe, Tara, Eikenberry, Stephen S., Amezcua-Correa, Rodrigo, Yerolatsitis, Stephanos
Format: Preprint
Published: 2025
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author Sengupta, Aditya R.
Chambouleyron, Vincent
Diaz, Jordan
DeMartino, Matthew
Jensen-Clem, Rebecca
Gerard, Benjamin L.
Messerly, Michael J.
Pax, Paul
Dillon, Daren
Bundy, Kevin
Cuevas, Maria
Cetre, Sylvain
Macintosh, Bruce
Dobias, Caleb
Crowe, Tara
Eikenberry, Stephen S.
Amezcua-Correa, Rodrigo
Yerolatsitis, Stephanos
author_facet Sengupta, Aditya R.
Chambouleyron, Vincent
Diaz, Jordan
DeMartino, Matthew
Jensen-Clem, Rebecca
Gerard, Benjamin L.
Messerly, Michael J.
Pax, Paul
Dillon, Daren
Bundy, Kevin
Cuevas, Maria
Cetre, Sylvain
Macintosh, Bruce
Dobias, Caleb
Crowe, Tara
Eikenberry, Stephen S.
Amezcua-Correa, Rodrigo
Yerolatsitis, Stephanos
contents Photonic lanterns (PLs) are fiber-based waveguides that are capable of focal-plane wavefront sensing while simultaneously directing light to downstream science instruments. The optimal choice of wavefront reconstruction algorithm has yet to be determined, and likely depends on the particular observing scenario under consideration. Previous work in simulation suggests that PLs can be used for nonlinear wavefront sensing for several applications, including sensing the low-wind effect and correcting large-amplitude aberrations. We present the design of muirSEAL (miniature IR SEAL), a testbed designed to test PL wavefront reconstruction over Zernike modes and segmented-mirror offsets. We demonstrate throughput and linear wavefront reconstruction at multiple f-numbers. We further present initial laboratory imaging of a new photonic lantern fabricated at Lawrence Livermore National Laboratory.
format Preprint
id arxiv_https___arxiv_org_abs_2508_20078
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Experimental validation of photonic lantern imaging and wavefront sensing performance
Sengupta, Aditya R.
Chambouleyron, Vincent
Diaz, Jordan
DeMartino, Matthew
Jensen-Clem, Rebecca
Gerard, Benjamin L.
Messerly, Michael J.
Pax, Paul
Dillon, Daren
Bundy, Kevin
Cuevas, Maria
Cetre, Sylvain
Macintosh, Bruce
Dobias, Caleb
Crowe, Tara
Eikenberry, Stephen S.
Amezcua-Correa, Rodrigo
Yerolatsitis, Stephanos
Instrumentation and Methods for Astrophysics
Photonic lanterns (PLs) are fiber-based waveguides that are capable of focal-plane wavefront sensing while simultaneously directing light to downstream science instruments. The optimal choice of wavefront reconstruction algorithm has yet to be determined, and likely depends on the particular observing scenario under consideration. Previous work in simulation suggests that PLs can be used for nonlinear wavefront sensing for several applications, including sensing the low-wind effect and correcting large-amplitude aberrations. We present the design of muirSEAL (miniature IR SEAL), a testbed designed to test PL wavefront reconstruction over Zernike modes and segmented-mirror offsets. We demonstrate throughput and linear wavefront reconstruction at multiple f-numbers. We further present initial laboratory imaging of a new photonic lantern fabricated at Lawrence Livermore National Laboratory.
title Experimental validation of photonic lantern imaging and wavefront sensing performance
topic Instrumentation and Methods for Astrophysics
url https://arxiv.org/abs/2508.20078