Edge roughness analysis in nanoscale for single-molecule localization microscopy images

The recent advances in super-resolution fluorescence microscopy, including single-molecule localization microscopy (SMLM), has enabled the study of previously inaccessible details, such as the organization of proteins within cellular compartments and even nanostructures in nonbiological nanomaterial...

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Main Authors: Jeong Uidon, Go Ga-eun, Jeong Dokyung, Lee Dongmin, Kim Min Jeong, Kang Minjae, Kim Namyoon, Jung Jaehwang, Kim Wookrae, Lee Myungjun, Kim Doory
Format: Article
Language:English
Published: De Gruyter 2024-01-01
Series:Nanophotonics
Subjects:
Online Access:https://doi.org/10.1515/nanoph-2023-0709
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author Jeong Uidon
Go Ga-eun
Jeong Dokyung
Lee Dongmin
Kim Min Jeong
Kang Minjae
Kim Namyoon
Jung Jaehwang
Kim Wookrae
Lee Myungjun
Kim Doory
author_facet Jeong Uidon
Go Ga-eun
Jeong Dokyung
Lee Dongmin
Kim Min Jeong
Kang Minjae
Kim Namyoon
Jung Jaehwang
Kim Wookrae
Lee Myungjun
Kim Doory
author_sort Jeong Uidon
collection DOAJ
description The recent advances in super-resolution fluorescence microscopy, including single-molecule localization microscopy (SMLM), has enabled the study of previously inaccessible details, such as the organization of proteins within cellular compartments and even nanostructures in nonbiological nanomaterials, such as the polymers and semiconductors. With such developments, the need for the development of various computational nanostructure analysis methods for SMLM images is also increasing; however, this has been limited to protein cluster analysis. In this study, we developed an edge structure analysis method for pointillistic SMLM images based on the line edge roughness and power spectral density analyses. By investigating the effect of point properties in SMLM images, such as the size, density, and localization precision on the roughness measurement, we successfully demonstrated this analysis method for experimental SMLM images of actual samples, including the semiconductor line patterns, cytoskeletal elements, and cell membranes. This systematic investigation of the effect of each localization rendering parameter on edge roughness measurement provides a range for the optimal rendering parameters that preserve the relevant nanoscale structure of interest. These new methods are expected to expand our understanding of the targets by providing valuable insights into edge nanoscale structures that have not been previously obtained quantitatively.
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spelling doaj.art-38b4012063e04d97a95dc9de81e183592024-11-25T11:19:11ZengDe GruyterNanophotonics2192-86062192-86142024-01-0113219520710.1515/nanoph-2023-0709Edge roughness analysis in nanoscale for single-molecule localization microscopy imagesJeong Uidon0Go Ga-eun1Jeong Dokyung2Lee Dongmin3Kim Min Jeong4Kang Minjae5Kim Namyoon6Jung Jaehwang7Kim Wookrae8Lee Myungjun9Kim Doory10Department of Chemistry, Hanyang University, Seoul04763, Republic of KoreaDepartment of Chemistry, Hanyang University, Seoul04763, Republic of KoreaDepartment of Chemistry, Hanyang University, Seoul04763, Republic of KoreaDepartment of Chemistry, Hanyang University, Seoul04763, Republic of KoreaDepartment of Chemistry, Hanyang University, Seoul04763, Republic of KoreaDepartment of Chemistry, Hanyang University, Seoul04763, Republic of KoreaMI Equipment R&D Team, Mechatronics Research, Samsung Electronics Co., Ltd., Hwaseong18848, Republic of KoreaMI Equipment R&D Team, Mechatronics Research, Samsung Electronics Co., Ltd., Hwaseong18848, Republic of KoreaMI Equipment R&D Team, Mechatronics Research, Samsung Electronics Co., Ltd., Hwaseong18848, Republic of KoreaMI Equipment R&D Team, Mechatronics Research, Samsung Electronics Co., Ltd., Hwaseong18848, Republic of KoreaDepartment of Chemistry, Hanyang University, Seoul04763, Republic of KoreaThe recent advances in super-resolution fluorescence microscopy, including single-molecule localization microscopy (SMLM), has enabled the study of previously inaccessible details, such as the organization of proteins within cellular compartments and even nanostructures in nonbiological nanomaterials, such as the polymers and semiconductors. With such developments, the need for the development of various computational nanostructure analysis methods for SMLM images is also increasing; however, this has been limited to protein cluster analysis. In this study, we developed an edge structure analysis method for pointillistic SMLM images based on the line edge roughness and power spectral density analyses. By investigating the effect of point properties in SMLM images, such as the size, density, and localization precision on the roughness measurement, we successfully demonstrated this analysis method for experimental SMLM images of actual samples, including the semiconductor line patterns, cytoskeletal elements, and cell membranes. This systematic investigation of the effect of each localization rendering parameter on edge roughness measurement provides a range for the optimal rendering parameters that preserve the relevant nanoscale structure of interest. These new methods are expected to expand our understanding of the targets by providing valuable insights into edge nanoscale structures that have not been previously obtained quantitatively.https://doi.org/10.1515/nanoph-2023-0709single-molecule localization microscopysemiconductorcell membrane roughnessedge roughness analysisline edge roughnesspower spectral density
spellingShingle Jeong Uidon
Go Ga-eun
Jeong Dokyung
Lee Dongmin
Kim Min Jeong
Kang Minjae
Kim Namyoon
Jung Jaehwang
Kim Wookrae
Lee Myungjun
Kim Doory
Edge roughness analysis in nanoscale for single-molecule localization microscopy images
Nanophotonics
single-molecule localization microscopy
semiconductor
cell membrane roughness
edge roughness analysis
line edge roughness
power spectral density
title Edge roughness analysis in nanoscale for single-molecule localization microscopy images
title_full Edge roughness analysis in nanoscale for single-molecule localization microscopy images
title_fullStr Edge roughness analysis in nanoscale for single-molecule localization microscopy images
title_full_unstemmed Edge roughness analysis in nanoscale for single-molecule localization microscopy images
title_short Edge roughness analysis in nanoscale for single-molecule localization microscopy images
title_sort edge roughness analysis in nanoscale for single molecule localization microscopy images
topic single-molecule localization microscopy
semiconductor
cell membrane roughness
edge roughness analysis
line edge roughness
power spectral density
url https://doi.org/10.1515/nanoph-2023-0709
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