Imaging Electrical Activity of Retinal Ganglion Cells with Fluorescent Voltage and Calcium Indicator Proteins in Retinal Degenerative <i>rd1</i> Blind Mice

In order to understand the retinal network, it is essential to identify functional connectivity among retinal neurons. For this purpose, imaging neuronal activity through fluorescent indicator proteins has been a promising approach, offering simultaneous measurements of neuronal activities from diff...

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Huvudupphovsman: Younginha Jung (22676081) (author)
Övriga upphovsmän: Sungmoo Lee (7554905) (author), Jun Kyu Rhee (11633650) (author), Chae-Eun Lee (14228438) (author), Bradley J. Baker (7554908) (author), Yoon-Kyu Song (6257246) (author)
Publicerad: 2025
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_version_ 1849927644242509824
author Younginha Jung (22676081)
author2 Sungmoo Lee (7554905)
Jun Kyu Rhee (11633650)
Chae-Eun Lee (14228438)
Bradley J. Baker (7554908)
Yoon-Kyu Song (6257246)
author2_role author
author
author
author
author
author_facet Younginha Jung (22676081)
Sungmoo Lee (7554905)
Jun Kyu Rhee (11633650)
Chae-Eun Lee (14228438)
Bradley J. Baker (7554908)
Yoon-Kyu Song (6257246)
author_role author
dc.creator.none.fl_str_mv Younginha Jung (22676081)
Sungmoo Lee (7554905)
Jun Kyu Rhee (11633650)
Chae-Eun Lee (14228438)
Bradley J. Baker (7554908)
Yoon-Kyu Song (6257246)
dc.date.none.fl_str_mv 2025-11-24T17:38:13Z
dc.identifier.none.fl_str_mv 10.1021/acschemneuro.5c00740.s002
dc.relation.none.fl_str_mv https://figshare.com/articles/media/Imaging_Electrical_Activity_of_Retinal_Ganglion_Cells_with_Fluorescent_Voltage_and_Calcium_Indicator_Proteins_in_Retinal_Degenerative_i_rd1_i_Blind_Mice/30696119
dc.rights.none.fl_str_mv CC BY-NC 4.0
info:eu-repo/semantics/openAccess
dc.subject.none.fl_str_mv Biophysics
Biochemistry
Medicine
Microbiology
Cell Biology
Neuroscience
Physiology
Biotechnology
Developmental Biology
Chemical Sciences not elsewhere classified
potent experimental platform
offering simultaneous measurements
evoked somatic spiking
fluorescent protein sensors
fluorescent indicator proteins
retinal stimulation strategies
retinal signaling pathways
retinal ganglion cells
calcium indicator proteins
calcium concentrations evoked
visualize membrane voltage
subthreshold voltage changes
imaging neuronal activity
imaging electrical activity
retinal voltage imaging
electrical activity
fluorescent voltage
retinal tissues
retinal network
retinal degenerative
neuronal activities
calcium 
calcium dynamics
visual prosthesis
show current
results indicate
rd1 </
promising approach
millisecond resolution
different regions
current pulses
cellular precision
dc.title.none.fl_str_mv Imaging Electrical Activity of Retinal Ganglion Cells with Fluorescent Voltage and Calcium Indicator Proteins in Retinal Degenerative <i>rd1</i> Blind Mice
dc.type.none.fl_str_mv Dataset
Media
info:eu-repo/semantics/publishedVersion
dataset
description In order to understand the retinal network, it is essential to identify functional connectivity among retinal neurons. For this purpose, imaging neuronal activity through fluorescent indicator proteins has been a promising approach, offering simultaneous measurements of neuronal activities from different regions of the circuit. In this study, we used genetically encoded indicatorsBongwoori-R3 for voltage or GCaMP6f for calciumto visualize membrane voltage or calcium dynamics, respectively, as spatial maps within individual retinal ganglion cells from retinal tissues of photoreceptor-degenerated <i>rd1</i> mice. Retinal voltage imaging was able to show current-evoked somatic spiking as well as subthreshold voltage changes, while calcium imaging showed changes in calcium concentrations evoked by current pulses in retinal ganglion cells. These results indicate that the combination of fluorescent protein sensors and high-speed imaging methods permits the imaging of electrical activity with cellular precision and millisecond resolution. Hence, we expect our method will provide a potent experimental platform for the study of retinal signaling pathways, as well as the development of retinal stimulation strategies in visual prosthesis.
eu_rights_str_mv openAccess
id Manara_54aca51928be93a31db1660969337679
identifier_str_mv 10.1021/acschemneuro.5c00740.s002
network_acronym_str Manara
network_name_str ManaraRepo
oai_identifier_str oai:figshare.com:article/30696119
publishDate 2025
repository.mail.fl_str_mv
repository.name.fl_str_mv
repository_id_str
rights_invalid_str_mv CC BY-NC 4.0
spelling Imaging Electrical Activity of Retinal Ganglion Cells with Fluorescent Voltage and Calcium Indicator Proteins in Retinal Degenerative <i>rd1</i> Blind MiceYounginha Jung (22676081)Sungmoo Lee (7554905)Jun Kyu Rhee (11633650)Chae-Eun Lee (14228438)Bradley J. Baker (7554908)Yoon-Kyu Song (6257246)BiophysicsBiochemistryMedicineMicrobiologyCell BiologyNeurosciencePhysiologyBiotechnologyDevelopmental BiologyChemical Sciences not elsewhere classifiedpotent experimental platformoffering simultaneous measurementsevoked somatic spikingfluorescent protein sensorsfluorescent indicator proteinsretinal stimulation strategiesretinal signaling pathwaysretinal ganglion cellscalcium indicator proteinscalcium concentrations evokedvisualize membrane voltagesubthreshold voltage changesimaging neuronal activityimaging electrical activityretinal voltage imagingelectrical activityfluorescent voltageretinal tissuesretinal networkretinal degenerativeneuronal activitiescalcium calcium dynamicsvisual prosthesisshow currentresults indicaterd1 </promising approachmillisecond resolutiondifferent regionscurrent pulsescellular precisionIn order to understand the retinal network, it is essential to identify functional connectivity among retinal neurons. For this purpose, imaging neuronal activity through fluorescent indicator proteins has been a promising approach, offering simultaneous measurements of neuronal activities from different regions of the circuit. In this study, we used genetically encoded indicatorsBongwoori-R3 for voltage or GCaMP6f for calciumto visualize membrane voltage or calcium dynamics, respectively, as spatial maps within individual retinal ganglion cells from retinal tissues of photoreceptor-degenerated <i>rd1</i> mice. Retinal voltage imaging was able to show current-evoked somatic spiking as well as subthreshold voltage changes, while calcium imaging showed changes in calcium concentrations evoked by current pulses in retinal ganglion cells. These results indicate that the combination of fluorescent protein sensors and high-speed imaging methods permits the imaging of electrical activity with cellular precision and millisecond resolution. Hence, we expect our method will provide a potent experimental platform for the study of retinal signaling pathways, as well as the development of retinal stimulation strategies in visual prosthesis.2025-11-24T17:38:13ZDatasetMediainfo:eu-repo/semantics/publishedVersiondataset10.1021/acschemneuro.5c00740.s002https://figshare.com/articles/media/Imaging_Electrical_Activity_of_Retinal_Ganglion_Cells_with_Fluorescent_Voltage_and_Calcium_Indicator_Proteins_in_Retinal_Degenerative_i_rd1_i_Blind_Mice/30696119CC BY-NC 4.0info:eu-repo/semantics/openAccessoai:figshare.com:article/306961192025-11-24T17:38:13Z
spellingShingle Imaging Electrical Activity of Retinal Ganglion Cells with Fluorescent Voltage and Calcium Indicator Proteins in Retinal Degenerative <i>rd1</i> Blind Mice
Younginha Jung (22676081)
Biophysics
Biochemistry
Medicine
Microbiology
Cell Biology
Neuroscience
Physiology
Biotechnology
Developmental Biology
Chemical Sciences not elsewhere classified
potent experimental platform
offering simultaneous measurements
evoked somatic spiking
fluorescent protein sensors
fluorescent indicator proteins
retinal stimulation strategies
retinal signaling pathways
retinal ganglion cells
calcium indicator proteins
calcium concentrations evoked
visualize membrane voltage
subthreshold voltage changes
imaging neuronal activity
imaging electrical activity
retinal voltage imaging
electrical activity
fluorescent voltage
retinal tissues
retinal network
retinal degenerative
neuronal activities
calcium 
calcium dynamics
visual prosthesis
show current
results indicate
rd1 </
promising approach
millisecond resolution
different regions
current pulses
cellular precision
status_str publishedVersion
title Imaging Electrical Activity of Retinal Ganglion Cells with Fluorescent Voltage and Calcium Indicator Proteins in Retinal Degenerative <i>rd1</i> Blind Mice
title_full Imaging Electrical Activity of Retinal Ganglion Cells with Fluorescent Voltage and Calcium Indicator Proteins in Retinal Degenerative <i>rd1</i> Blind Mice
title_fullStr Imaging Electrical Activity of Retinal Ganglion Cells with Fluorescent Voltage and Calcium Indicator Proteins in Retinal Degenerative <i>rd1</i> Blind Mice
title_full_unstemmed Imaging Electrical Activity of Retinal Ganglion Cells with Fluorescent Voltage and Calcium Indicator Proteins in Retinal Degenerative <i>rd1</i> Blind Mice
title_short Imaging Electrical Activity of Retinal Ganglion Cells with Fluorescent Voltage and Calcium Indicator Proteins in Retinal Degenerative <i>rd1</i> Blind Mice
title_sort Imaging Electrical Activity of Retinal Ganglion Cells with Fluorescent Voltage and Calcium Indicator Proteins in Retinal Degenerative <i>rd1</i> Blind Mice
topic Biophysics
Biochemistry
Medicine
Microbiology
Cell Biology
Neuroscience
Physiology
Biotechnology
Developmental Biology
Chemical Sciences not elsewhere classified
potent experimental platform
offering simultaneous measurements
evoked somatic spiking
fluorescent protein sensors
fluorescent indicator proteins
retinal stimulation strategies
retinal signaling pathways
retinal ganglion cells
calcium indicator proteins
calcium concentrations evoked
visualize membrane voltage
subthreshold voltage changes
imaging neuronal activity
imaging electrical activity
retinal voltage imaging
electrical activity
fluorescent voltage
retinal tissues
retinal network
retinal degenerative
neuronal activities
calcium 
calcium dynamics
visual prosthesis
show current
results indicate
rd1 </
promising approach
millisecond resolution
different regions
current pulses
cellular precision