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On October 22, 2024, 11:52:09 AM UTC,
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Updated description of Influence of Irradiance and Temperature on the Virus MpoV-45T Infecting the Arctic Picophytoplankter Micromonas polaris - Data from
abstract
toArctic marine ecosystems are currently undergoing rapid changes in temperature and light availability. Picophytoplankton, such as Micromonas polaris, are predicted to benefit from such changes. However, little is known about how these environmental changes affect the viruses that exert a strong mortality pressure on these small but omnipresent algae. Here we report on one-step infection experiments, combined with measurements of host physiology and viability, with 2 strains of M. polaris and the virus MpoV-45T under 3 light intensities (5, 60 and 160 μmol quanta m−2 s−1), 2 light period regimes (16:8 and 24:0 h light:dark cycle) and 2 temperatures (3 and 7°C). Our results show that low light intensity (16:8 h light:dark) delayed the decline in photosynthetic efficiency and cell lysis, while decreasing burst size by 46%. In contrast, continuous light (24:0 h light:dark) shortened the latent period by 5 h for all light intensities, and even increased the maximum virus production rate and burst size under low light (by 157 and 69%, respectively). Higher temperature (7°C vs 3°C) led to earlier cell lysis and increased burst size (by 19%), except for the low light conditions. These findings demonstrate the ecological importance of light in combination with temperature as a controlling factor for Arctic phytoplankton host and virus dynamics seasonally, even more so in the light of global warming.
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Changed the version of Influence of Irradiance and Temperature on the Virus MpoV-45T Infecting the Arctic Picophytoplankter Micromonas polaris - Data to 2 (previously 1)
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| 9 | Netherlands Institute for Sea | 9 | Netherlands Institute for Sea | ||
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| 11 | Brussaard - Royal Netherlands Institute for Sea Research - ORCID: | 11 | Brussaard - Royal Netherlands Institute for Sea Research - ORCID: | ||
| 12 | 0000-0002-6320-9229 - Corresponding Author - | 12 | 0000-0002-6320-9229 - Corresponding Author - | ||
| 13 | calo\",\"lastname\":\"Piedade\",\"orcid\":null,\"affiliation\":\"Royal | 13 | calo\",\"lastname\":\"Piedade\",\"orcid\":null,\"affiliation\":\"Royal | ||
| 14 | Netherlands Institute for Sea | 14 | Netherlands Institute for Sea | ||
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| 17 | "deposit_date": "2023-03-29", | 17 | "deposit_date": "2023-03-29", | ||
| 18 | "depositor": "Corina Brussaard", | 18 | "depositor": "Corina Brussaard", | ||
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| 21 | Institute for Sea Research)", | 21 | Institute for Sea Research)", | ||
| 22 | "doi_date_published": "2023-03-29", | 22 | "doi_date_published": "2023-03-29", | ||
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| n | 36 | "notes": "abstract", | n | 36 | "notes": "Arctic marine ecosystems are currently undergoing rapid |
| 37 | changes in temperature and light availability. Picophytoplankton, such | ||||
| 38 | as Micromonas polaris, are predicted to benefit from such changes. | ||||
| 39 | However, little is known about how these environmental changes affect | ||||
| 40 | the viruses that exert a strong mortality pressure on these small but | ||||
| 41 | omnipresent algae. Here we report on one-step infection experiments, | ||||
| 42 | combined with measurements of host physiology and viability, with 2 | ||||
| 43 | strains of M. polaris and the virus MpoV-45T under 3 light intensities | ||||
| 44 | (5, 60 and 160 \u03bcmol quanta m\u22122 s\u22121), 2 light period | ||||
| 45 | regimes (16:8 and 24:0 h light:dark cycle) and 2 temperatures (3 and | ||||
| 46 | 7\u00b0C). Our results show that low light intensity (16:8 h | ||||
| 47 | light:dark) delayed the decline in photosynthetic efficiency and cell | ||||
| 48 | lysis, while decreasing burst size by 46%. In contrast, continuous | ||||
| 49 | light (24:0 h light:dark) shortened the latent period by 5 h for all | ||||
| 50 | light intensities, and even increased the maximum virus production | ||||
| 51 | rate and burst size under low light (by 157 and 69%, respectively). | ||||
| 52 | Higher temperature (7\u00b0C vs 3\u00b0C) led to earlier cell lysis | ||||
| 53 | and increased burst size (by 19%), except for the low light | ||||
| 54 | conditions. These findings demonstrate the ecological importance of | ||||
| 55 | light in combination with temperature as a controlling factor for | ||||
| 56 | Arctic phytoplankton host and virus dynamics seasonally, even more so | ||||
| 57 | in the light of global warming.", | ||||
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| 106 | { | 127 | { | ||
| 107 | "display_name": "Flow cytometry experimental Arctic algal | 128 | "display_name": "Flow cytometry experimental Arctic algal | ||
| 108 | viruses Light intensity Light regime Global Climate Change", | 129 | viruses Light intensity Light regime Global Climate Change", | ||
| 109 | "id": "b37df212-e4ac-41b4-908d-a71a5ed5d215", | 130 | "id": "b37df212-e4ac-41b4-908d-a71a5ed5d215", | ||
| 110 | "name": "Flow cytometry experimental Arctic algal viruses Light | 131 | "name": "Flow cytometry experimental Arctic algal viruses Light | ||
| 111 | intensity Light regime Global Climate Change", | 132 | intensity Light regime Global Climate Change", | ||
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| 116 | "title": "Influence of Irradiance and Temperature on the Virus | 137 | "title": "Influence of Irradiance and Temperature on the Virus | ||
| 117 | MpoV-45T Infecting the Arctic Picophytoplankter Micromonas polaris - | 138 | MpoV-45T Infecting the Arctic Picophytoplankter Micromonas polaris - | ||
| 118 | Data", | 139 | Data", | ||
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