Proteomic and Mutant Analysis of the CO 2 Concentrating Mechanism of Hydrothermal Vent Chemolithoautotroph Thiomicrospira crunogena

Many autotrophic microorganisms are likely to adapt to scarcity in dissolved inorganic carbon (DIC; CO + HCO + CO ) with CO concentrating mechanisms (CCM) that actively transport DIC across the cell membrane to facilitate carbon fixation. Surprisingly, DIC transport has been well studied among cyano...

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Veröffentlicht in:Journal of bacteriology 2017-04, Vol.199 (7)
Hauptverfasser: Mangiapia, Mary, Brown, Terry-René W, Chaput, Dale, Haller, Edward, Harmer, Tara L, Hashemy, Zahra, Keeley, Ryan, Leonard, Juliana, Mancera, Paola, Nicholson, David, Stevens, Stanley, Wanjugi, Pauline, Zabinski, Tania, Pan, Chongle, Scott, Kathleen M
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container_issue 7
container_start_page
container_title Journal of bacteriology
container_volume 199
creator Mangiapia, Mary
Brown, Terry-René W
Chaput, Dale
Haller, Edward
Harmer, Tara L
Hashemy, Zahra
Keeley, Ryan
Leonard, Juliana
Mancera, Paola
Nicholson, David
Stevens, Stanley
Wanjugi, Pauline
Zabinski, Tania
Pan, Chongle
Scott, Kathleen M
description Many autotrophic microorganisms are likely to adapt to scarcity in dissolved inorganic carbon (DIC; CO + HCO + CO ) with CO concentrating mechanisms (CCM) that actively transport DIC across the cell membrane to facilitate carbon fixation. Surprisingly, DIC transport has been well studied among cyanobacteria and microalgae only. The deep-sea vent gammaproteobacterial chemolithoautotroph has a low-DIC inducible CCM, though the mechanism for uptake is unclear, as homologs to cyanobacterial transporters are absent. To identify the components of this CCM, proteomes of cultivated under low- and high-DIC conditions were compared. Fourteen proteins, including those comprising carboxysomes, were at least 4-fold more abundant under low-DIC conditions. One of these proteins was encoded by ; strains carrying mutated copies of this gene, as well as the adjacent , required elevated DIC for growth. Strains carrying mutated copies of and overexpressed carboxysomes and had diminished ability to accumulate intracellular DIC. Based on reverse transcription (RT)-PCR, and were cotranscribed and upregulated under low-DIC conditions. The -encoded protein was predicted to have 13 transmembrane helices. Given the mutant phenotypes described above, and may encode a two-subunit DIC transporter that belongs to a previously undescribed transporter family, though it is widespread among autotrophs from multiple phyla. DIC uptake and fixation by autotrophs are the primary input of inorganic carbon into the biosphere. The mechanism for dissolved inorganic carbon uptake has been characterized only for cyanobacteria despite the importance of DIC uptake by autotrophic microorganisms from many phyla among the and In this work, proteins necessary for dissolved inorganic carbon utilization in the deep-sea vent chemolithoautotroph were identified, and two of these may be able to form a novel transporter. Homologs of these proteins are present in 14 phyla in and also in one phylum of , the Many organisms carrying these homologs are autotrophs, suggesting a role in facilitating dissolved inorganic carbon uptake and fixation well beyond the genus .
doi_str_mv 10.1128/JB.00871-16
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Surprisingly, DIC transport has been well studied among cyanobacteria and microalgae only. The deep-sea vent gammaproteobacterial chemolithoautotroph has a low-DIC inducible CCM, though the mechanism for uptake is unclear, as homologs to cyanobacterial transporters are absent. To identify the components of this CCM, proteomes of cultivated under low- and high-DIC conditions were compared. Fourteen proteins, including those comprising carboxysomes, were at least 4-fold more abundant under low-DIC conditions. One of these proteins was encoded by ; strains carrying mutated copies of this gene, as well as the adjacent , required elevated DIC for growth. Strains carrying mutated copies of and overexpressed carboxysomes and had diminished ability to accumulate intracellular DIC. Based on reverse transcription (RT)-PCR, and were cotranscribed and upregulated under low-DIC conditions. The -encoded protein was predicted to have 13 transmembrane helices. Given the mutant phenotypes described above, and may encode a two-subunit DIC transporter that belongs to a previously undescribed transporter family, though it is widespread among autotrophs from multiple phyla. DIC uptake and fixation by autotrophs are the primary input of inorganic carbon into the biosphere. The mechanism for dissolved inorganic carbon uptake has been characterized only for cyanobacteria despite the importance of DIC uptake by autotrophic microorganisms from many phyla among the and In this work, proteins necessary for dissolved inorganic carbon utilization in the deep-sea vent chemolithoautotroph were identified, and two of these may be able to form a novel transporter. 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subjects Carbon - metabolism
Carbon Dioxide - metabolism
Gene Expression Regulation, Bacterial - physiology
Hydrothermal Vents - microbiology
Mutation
Phylogeny
Piscirickettsiaceae - genetics
Piscirickettsiaceae - metabolism
Proteome
title Proteomic and Mutant Analysis of the CO 2 Concentrating Mechanism of Hydrothermal Vent Chemolithoautotroph Thiomicrospira crunogena
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