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Carbon Dioxide Pretreatment and Cold Storage Synergistically Delay Tomato Ripening through Transcriptional Change in Ethylene-Related Genes and Respiration-Related Metabolism

The effects of CO(2) pretreatment before cold storage on tomato quality were investigated using physicochemical and transcriptome changes. Harvested tomatoes were treated with 30% or 60% CO(2) for 3 h before storage at 4 °C for 14 d (cold storage), followed by transfer to 20 °C for 8 d (ambient cond...

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Autores principales: Park, Me-Hea, Kim, Sun-Ju, Lee, Jung-Soo, Hong, Yoon-Pyo, Chae, Seung-Hun, Ku, Kang-Mo
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2021
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8065853/
https://www.ncbi.nlm.nih.gov/pubmed/33915990
http://dx.doi.org/10.3390/foods10040744
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author Park, Me-Hea
Kim, Sun-Ju
Lee, Jung-Soo
Hong, Yoon-Pyo
Chae, Seung-Hun
Ku, Kang-Mo
author_facet Park, Me-Hea
Kim, Sun-Ju
Lee, Jung-Soo
Hong, Yoon-Pyo
Chae, Seung-Hun
Ku, Kang-Mo
author_sort Park, Me-Hea
collection PubMed
description The effects of CO(2) pretreatment before cold storage on tomato quality were investigated using physicochemical and transcriptome changes. Harvested tomatoes were treated with 30% or 60% CO(2) for 3 h before storage at 4 °C for 14 d (cold storage), followed by transfer to 20 °C for 8 d (ambient conditions). The CO(2)-treated fruits were firmer with a better appearance than untreated fruits, even after being transferred from 4 °C storage to 20 °C for 8 d. CO(2) pretreatment coupled with cold storage synergistically delayed tomato ripening by reducing respiration and lowering lycopene production. The tomatoes treated with 30% and 60% CO(2) had fewer pits than untreated fruits after cold storage, even after being transferred to ambient conditions. Moreover, the 60% CO(2) treatment significantly suppressed the decay rate. Transcriptome and metabolome functional enrichment analyses commonly showed the involvement of CO(2)-responsive genes or metabolites in sucrose and starch metabolism, as well as biosynthesis of secondary metabolites—in particular, glycolysis reduction. The most frequently detected domain was the ethylene-responsive factor. These results indicate that altered ethylene biosynthesis and ethylene signaling, via ethylene-responsive transcription factors and respiration-related pathways, appear to control CO(2)-induced fruit quality.
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spelling pubmed-80658532021-04-25 Carbon Dioxide Pretreatment and Cold Storage Synergistically Delay Tomato Ripening through Transcriptional Change in Ethylene-Related Genes and Respiration-Related Metabolism Park, Me-Hea Kim, Sun-Ju Lee, Jung-Soo Hong, Yoon-Pyo Chae, Seung-Hun Ku, Kang-Mo Foods Article The effects of CO(2) pretreatment before cold storage on tomato quality were investigated using physicochemical and transcriptome changes. Harvested tomatoes were treated with 30% or 60% CO(2) for 3 h before storage at 4 °C for 14 d (cold storage), followed by transfer to 20 °C for 8 d (ambient conditions). The CO(2)-treated fruits were firmer with a better appearance than untreated fruits, even after being transferred from 4 °C storage to 20 °C for 8 d. CO(2) pretreatment coupled with cold storage synergistically delayed tomato ripening by reducing respiration and lowering lycopene production. The tomatoes treated with 30% and 60% CO(2) had fewer pits than untreated fruits after cold storage, even after being transferred to ambient conditions. Moreover, the 60% CO(2) treatment significantly suppressed the decay rate. Transcriptome and metabolome functional enrichment analyses commonly showed the involvement of CO(2)-responsive genes or metabolites in sucrose and starch metabolism, as well as biosynthesis of secondary metabolites—in particular, glycolysis reduction. The most frequently detected domain was the ethylene-responsive factor. These results indicate that altered ethylene biosynthesis and ethylene signaling, via ethylene-responsive transcription factors and respiration-related pathways, appear to control CO(2)-induced fruit quality. MDPI 2021-04-01 /pmc/articles/PMC8065853/ /pubmed/33915990 http://dx.doi.org/10.3390/foods10040744 Text en © 2021 by the authors. https://creativecommons.org/licenses/by/4.0/Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Park, Me-Hea
Kim, Sun-Ju
Lee, Jung-Soo
Hong, Yoon-Pyo
Chae, Seung-Hun
Ku, Kang-Mo
Carbon Dioxide Pretreatment and Cold Storage Synergistically Delay Tomato Ripening through Transcriptional Change in Ethylene-Related Genes and Respiration-Related Metabolism
title Carbon Dioxide Pretreatment and Cold Storage Synergistically Delay Tomato Ripening through Transcriptional Change in Ethylene-Related Genes and Respiration-Related Metabolism
title_full Carbon Dioxide Pretreatment and Cold Storage Synergistically Delay Tomato Ripening through Transcriptional Change in Ethylene-Related Genes and Respiration-Related Metabolism
title_fullStr Carbon Dioxide Pretreatment and Cold Storage Synergistically Delay Tomato Ripening through Transcriptional Change in Ethylene-Related Genes and Respiration-Related Metabolism
title_full_unstemmed Carbon Dioxide Pretreatment and Cold Storage Synergistically Delay Tomato Ripening through Transcriptional Change in Ethylene-Related Genes and Respiration-Related Metabolism
title_short Carbon Dioxide Pretreatment and Cold Storage Synergistically Delay Tomato Ripening through Transcriptional Change in Ethylene-Related Genes and Respiration-Related Metabolism
title_sort carbon dioxide pretreatment and cold storage synergistically delay tomato ripening through transcriptional change in ethylene-related genes and respiration-related metabolism
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8065853/
https://www.ncbi.nlm.nih.gov/pubmed/33915990
http://dx.doi.org/10.3390/foods10040744
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