Transfer learning for galaxy feature detection: Finding Giant Star-forming Clumps in low redshift galaxies using Faster R-CNN

Giant Star-forming Clumps (GSFCs) are areas of intensive star-formation that are commonly observed in high-redshift (z>1) galaxies but their formation and role in galaxy evolution remain unclear. High-resolution observations of low-redshift clumpy galaxy analogues are rare and restricted to a lim...

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Hauptverfasser: Popp, Jürgen, Dickinson, Hugh, Serjeant, Stephen, Walmsley, Mike, Adams, Dominic, tson, Lucy, Mantha, Kameswara, Mehta, Vihang, Dawson, James M, Kruk, Sandor, Simmons, Brooke
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creator Popp, Jürgen
Dickinson, Hugh
Serjeant, Stephen
Walmsley, Mike
Adams, Dominic
tson, Lucy
Mantha, Kameswara
Mehta, Vihang
Dawson, James M
Kruk, Sandor
Simmons, Brooke
description Giant Star-forming Clumps (GSFCs) are areas of intensive star-formation that are commonly observed in high-redshift (z>1) galaxies but their formation and role in galaxy evolution remain unclear. High-resolution observations of low-redshift clumpy galaxy analogues are rare and restricted to a limited set of galaxies but the increasing availability of wide-field galaxy survey data makes the detection of large clumpy galaxy samples increasingly feasible. Deep Learning, and in particular CNNs, have been successfully applied to image classification tasks in astrophysical data analysis. However, one application of DL that remains relatively unexplored is that of automatically identifying and localising specific objects or features in astrophysical imaging data. In this paper we demonstrate the feasibility of using Deep learning-based object detection models to localise GSFCs in astrophysical imaging data. We apply the Faster R-CNN object detection framework (FRCNN) to identify GSFCs in low redshift (z
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High-resolution observations of low-redshift clumpy galaxy analogues are rare and restricted to a limited set of galaxies but the increasing availability of wide-field galaxy survey data makes the detection of large clumpy galaxy samples increasingly feasible. Deep Learning, and in particular CNNs, have been successfully applied to image classification tasks in astrophysical data analysis. However, one application of DL that remains relatively unexplored is that of automatically identifying and localising specific objects or features in astrophysical imaging data. In this paper we demonstrate the feasibility of using Deep learning-based object detection models to localise GSFCs in astrophysical imaging data. We apply the Faster R-CNN object detection framework (FRCNN) to identify GSFCs in low redshift (z&lt;0.3) galaxies. 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subjects Astronomical models
Clumps
Data analysis
Deep learning
Feasibility
Galactic evolution
Galaxies
Giant stars
Image classification
Machine learning
Object recognition
Red shift
Sky surveys (astronomy)
Star formation
Stars & galaxies
title Transfer learning for galaxy feature detection: Finding Giant Star-forming Clumps in low redshift galaxies using Faster R-CNN
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