Replication Data for: Physics based machine learning for sub-cellular segmentation in living cells (doi:10.18710/IDCUCI)

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Document Description

Citation

Title:

Replication Data for: Physics based machine learning for sub-cellular segmentation in living cells

Identification Number:

doi:10.18710/IDCUCI

Distributor:

DataverseNO

Date of Distribution:

2021-06-25

Version:

1

Bibliographic Citation:

Opstad, Ida S.; Godtliebsen, Gustav; Sekh, Arif Ahmed, 2021, "Replication Data for: Physics based machine learning for sub-cellular segmentation in living cells", https://doi.org/10.18710/IDCUCI, DataverseNO, V1

Study Description

Citation

Title:

Replication Data for: Physics based machine learning for sub-cellular segmentation in living cells

Identification Number:

doi:10.18710/IDCUCI

Authoring Entity:

Opstad, Ida S. (UiT The Arctic University of Norway)

Godtliebsen, Gustav (UiT The Arctic University of Norway)

Sekh, Arif Ahmed (UiT The Arctic University of Norway)

Producer:

UiT The Arctic University of Norway

Date of Production:

2021-06-05

Grant Number:

804233

Grant Number:

288565

Grant Number:

HNF1449-19

Grant Number:

HNF1449-19

Grant Number:

HNF1449-19

Distributor:

DataverseNO

Distributor:

UiT The Arctic University of Norway

Access Authority:

Opstad, Ida S.

Depositor:

Opstad, Ida Sundvor

Date of Deposit:

2021-06-16

Holdings Information:

https://doi.org/10.18710/IDCUCI

Study Scope

Keywords:

Computer and Information Science, Medicine, Health and Life Sciences, fluorescence microscopy, live-cell, deep learning, cardiomyoblasts, mitochondria, artificial intelligence, segmentation

Abstract:

Abstract: Segmenting sub-cellular structures in living cells from fluorescence microscopy images is a ground truth (GT) hard problem. The microscope’s 3-dimensional blurring function, finite optical resolution due to light diffraction, finite pixel resolution, and complex morphological manifestations of the structures, all contribute to GT-hardness. Unsupervised segmentation approaches are quite inaccurate. Manual segmentation relying of heuristics and experience therefore remains the preferred approach. Nonetheless, this process is tedious, with 100s of structures present inside a single cell. Thus, generating analytic across large population of cells or performing advanced artificial intelligence (AI) tasks such as tracking is greatly limited. We bring modeling and deep learning to a nexus for solving this GT-hard problem, improving both the accuracy and speed of sub-cellular segmentation. We introduce the approach of simulation-supervision empowered with physics-based GT. In the simulation-supervision datasets used for training, the physics-based GT resolves the GT hardness while computational modeling of all the relevant physics aspects assists deep learning models to learn to compensate for physics and instrument induced limitations to a great extent. We show extensive results on segmentation of small vesicles and large diversity of mitochondria in diverse independent living and fixed cell datasets, demonstrate the adaptability of the approach across diverse microscopes through transfer learning, and illustrate biologically-relevant applications of automated analytic and motion analysis.

Date of Collection:

2016-04-20-2021-04-01

Country:

Norway

Geographic Coverage:

Troms, Tromsø

Kind of Data:

Experimental data

Methodology and Processing

Sources Statement

Data Access

Other Study Description Materials

Related Materials

The code for generating the simulated data used for the paper is openly available from: https://doi.org/10.5281/zenodo.5017066

Other Study-Related Materials

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0_ReadMe-1.txt

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text/plain

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Simulation.zip

Text:

Simulated image and segmentation data

Notes:

application/zip

Other Study-Related Materials

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Image1_Airyscan_RAW.tif

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image/tiff

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Image1_Airyscan_RAW_AiryscanProcessing.tif

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image/tiff

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Image2_Airyscan_RAW.tif

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image/tiff

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Image2_Airyscan_RAW_AiryscanProcessing.tif

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image/tiff

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Image3_Airyscan_RAW.tif

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image/tiff

Other Study-Related Materials

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Image3_Airyscan_RAW_AiryscanProcessing.tif

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image/tiff

Other Study-Related Materials

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20160420_mcc13_bmr20ppc_mtdr500nM_T25_1520_convtl_005.tif

Text:

Microscopy image data for the dataset LiveEpi1Hu.

Notes:

image/tiff

Other Study-Related Materials

Label:

20160420_mcc13_bmr20ppc_mtdr500nM_T25_1520_convtl_008.tif

Text:

Microscopy image data for the dataset LiveEpi1Hu.

Notes:

image/tiff

Other Study-Related Materials

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20160420_mcc13_bmr20ppc_T25_1520_convtl_010.tif

Text:

Microscopy image data pertaining to the dataset LiveEpi1Hu.

Notes:

image/tiff

Other Study-Related Materials

Label:

20160420_mcc13_bmr20ppc_T25_1520_conv_013.tif

Text:

Microscopy image data for the dataset LiveEpi1Hu.

Notes:

image/tiff

Other Study-Related Materials

Label:

20191030_H9c2-hypOx-5_cMed_mCh-OMP_mCL-1to1000-12min_36C-1522_m_001.tif

Text:

Microscopy image data for the dataset LiveEpi1Rat.

Notes:

image/tiff

Other Study-Related Materials

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20191030_H9c2-hypOx-5_cMed_mCh-OMP_mCL-1to1000-12min_36C-1522_m_002.tif

Text:

Microscopy image data for the dataset LiveEpi1Rat.

Notes:

image/tiff

Other Study-Related Materials

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20191030_H9c2-hypOx-ADM-7_cMed_mCh-OMP_mCL-1to1000-12min_36C-1522_m_015.tif

Text:

Microscopy image data for the dataset LiveEpi1Rat.

Notes:

image/tiff

Other Study-Related Materials

Label:

20191030_H9c2-normOx-3_cMed_mCh-OMP_mCL-1to1000-12min_36C-1522_m_025.tif

Text:

Microscopy image data for the dataset LiveEpi1Rat.

Notes:

image/tiff

Other Study-Related Materials

Label:

20191030_H9c2-normOx-3_cMed_mCh-OMP_mCL-1to1000-12min_36C-1522_m_026.tif

Text:

Microscopy image data for the dataset LiveEpi1Rat.

Notes:

image/tiff

Other Study-Related Materials

Label:

20191030_H9c2-normOx-3_cMed_mCh-OMP_mCL-1to1000-12min_36C-1522_m_027.tif

Text:

Microscopy image data for the dataset LiveEpi1Rat.

Notes:

image/tiff

Other Study-Related Materials

Label:

20191030_H9c2-normOx-3_cMed_mCh-OMP_mCL-1to1000-12min_36C-1522_m_028.tif

Text:

Microscopy image data for the dataset LiveEpi1Rat.

Notes:

image/tiff

Other Study-Related Materials

Label:

10-Regions-Imaged-every-5sec-10min-Z1-T1_50X_01.tif

Notes:

image/tiff

Other Study-Related Materials

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10-Regions-Imaged-every-5sec-10min-Z1-T1_50X_02.tif

Notes:

image/tiff