Flow Cytometry of Oxygen and Oxygen-Related Cellular Stress

Reactive oxygen species (ROS) are unstable and highly reactive molecular forms that play physiological roles in cell signaling and immune defense. However, when ROS generation is not properly balanced by antioxidant defenses, a pathological condition known as oxidative stress arises, in association...

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Main Authors: Beatriz Jávega, Guadalupe Herrera, Alicia Martínez-Romero, José-Enrique O’Connor
Format: Article
Language:English
Published: MDPI AG 2023-06-01
Series:Oxygen
Subjects:
Online Access:https://www.mdpi.com/2673-9801/3/2/16
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author Beatriz Jávega
Guadalupe Herrera
Alicia Martínez-Romero
José-Enrique O’Connor
author_facet Beatriz Jávega
Guadalupe Herrera
Alicia Martínez-Romero
José-Enrique O’Connor
author_sort Beatriz Jávega
collection DOAJ
description Reactive oxygen species (ROS) are unstable and highly reactive molecular forms that play physiological roles in cell signaling and immune defense. However, when ROS generation is not properly balanced by antioxidant defenses, a pathological condition known as oxidative stress arises, in association with the onset and progression of many diseases and conditions, including degeneration and aging. Biomarkers of oxidative stress in biomedicine are actively investigated using different approaches, among which flow cytometry (FCM) and other single-cell, fluorescence-based techniques are most frequent. FCM is an analytical method that measures light scattering and emission of multiple fluorescences by single cells or microscopic particles at a very fast rate. To assess the specific role of ROS in oxidative stress, it is essential to detect and characterize these species accurately. However, the detection and quantitation of individual intracellular ROS and parameters of oxidative stress using fluorogenic substrates and fluorescent probes are still a challenge, because of biological and methodological issues. In this review, we present and discuss a series of complementary strategies to detect ROS or to focus on other endpoints of oxidative stress. Based on our results, we propose some recommendations for proper design of cytometric studies of oxidative stress in order to prevent or minimize the limitations and experimental errors of such approaches.
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spelling doaj.art-a324ebeaaf6541708dbbb6938ed7bf6b2023-11-18T11:58:59ZengMDPI AGOxygen2673-98012023-06-013222225510.3390/oxygen3020016Flow Cytometry of Oxygen and Oxygen-Related Cellular StressBeatriz Jávega0Guadalupe Herrera1Alicia Martínez-Romero2José-Enrique O’Connor3Laboratory of Cytomics, Joint Research Unit CIPF-UVEG, The University of Valencia and Principe Felipe Research Center, 46012 Valencia, SpainCytometry Service, Central Research Unit (UCIM), Incliva Foundation, The University of Valencia and University Clinical Hospital, 46010 Valencia, SpainCytomics Technological Service, Principe Felipe Research Center, 46012 Valencia, SpainLaboratory of Cytomics, Joint Research Unit CIPF-UVEG, The University of Valencia and Principe Felipe Research Center, 46012 Valencia, SpainReactive oxygen species (ROS) are unstable and highly reactive molecular forms that play physiological roles in cell signaling and immune defense. However, when ROS generation is not properly balanced by antioxidant defenses, a pathological condition known as oxidative stress arises, in association with the onset and progression of many diseases and conditions, including degeneration and aging. Biomarkers of oxidative stress in biomedicine are actively investigated using different approaches, among which flow cytometry (FCM) and other single-cell, fluorescence-based techniques are most frequent. FCM is an analytical method that measures light scattering and emission of multiple fluorescences by single cells or microscopic particles at a very fast rate. To assess the specific role of ROS in oxidative stress, it is essential to detect and characterize these species accurately. However, the detection and quantitation of individual intracellular ROS and parameters of oxidative stress using fluorogenic substrates and fluorescent probes are still a challenge, because of biological and methodological issues. In this review, we present and discuss a series of complementary strategies to detect ROS or to focus on other endpoints of oxidative stress. Based on our results, we propose some recommendations for proper design of cytometric studies of oxidative stress in order to prevent or minimize the limitations and experimental errors of such approaches.https://www.mdpi.com/2673-9801/3/2/16fluorescenceimage cytometrycytomicsreactive oxygen speciesantioxidantsoxidative stress
spellingShingle Beatriz Jávega
Guadalupe Herrera
Alicia Martínez-Romero
José-Enrique O’Connor
Flow Cytometry of Oxygen and Oxygen-Related Cellular Stress
Oxygen
fluorescence
image cytometry
cytomics
reactive oxygen species
antioxidants
oxidative stress
title Flow Cytometry of Oxygen and Oxygen-Related Cellular Stress
title_full Flow Cytometry of Oxygen and Oxygen-Related Cellular Stress
title_fullStr Flow Cytometry of Oxygen and Oxygen-Related Cellular Stress
title_full_unstemmed Flow Cytometry of Oxygen and Oxygen-Related Cellular Stress
title_short Flow Cytometry of Oxygen and Oxygen-Related Cellular Stress
title_sort flow cytometry of oxygen and oxygen related cellular stress
topic fluorescence
image cytometry
cytomics
reactive oxygen species
antioxidants
oxidative stress
url https://www.mdpi.com/2673-9801/3/2/16
work_keys_str_mv AT beatrizjavega flowcytometryofoxygenandoxygenrelatedcellularstress
AT guadalupeherrera flowcytometryofoxygenandoxygenrelatedcellularstress
AT aliciamartinezromero flowcytometryofoxygenandoxygenrelatedcellularstress
AT joseenriqueoconnor flowcytometryofoxygenandoxygenrelatedcellularstress