Literature DB >> 23104409

Fluorometric quantification of polyphosphate in environmental plankton samples: extraction protocols, matrix effects, and nucleic acid interference.

Patrick Martin1, Benjamin A S Van Mooy.   

Abstract

Polyphosphate (polyP) is a ubiquitous biochemical with many cellular functions and comprises an important environmental phosphorus pool. However, methodological challenges have hampered routine quantification of polyP in environmental samples. We tested 15 protocols to extract inorganic polyphosphate from natural marine samples and cultured cyanobacteria for fluorometric quantification with 4',6-diamidino-2-phenylindole (DAPI) without prior purification. A combination of brief boiling and digestion with proteinase K was superior to all other protocols, including other enzymatic digestions and neutral or alkaline leaches. However, three successive extractions were required to extract all polyP. Standard addition revealed matrix effects that differed between sample types, causing polyP to be over- or underestimated by up to 50% in the samples tested here. Although previous studies judged that the presence of DNA would not complicate fluorometric quantification of polyP with DAPI, we show that RNA can cause significant interference at the wavelengths used to measure polyP. Importantly, treating samples with DNase and RNase before proteinase K digestion reduced fluorescence by up to 57%. We measured particulate polyP along a North Pacific coastal-to-open ocean transect and show that particulate polyP concentrations increased toward the open ocean. While our final method is optimized for marine particulate matter, different environmental sample types may need to be assessed for matrix effects, extraction efficiency, and nucleic acid interference.

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Year:  2012        PMID: 23104409      PMCID: PMC3536087          DOI: 10.1128/AEM.02592-12

Source DB:  PubMed          Journal:  Appl Environ Microbiol        ISSN: 0099-2240            Impact factor:   4.792


  39 in total

1.  Inorganic polyphosphate and the induction of rpoS expression.

Authors:  T Shiba; K Tsutsumi; H Yano; Y Ihara; A Kameda; K Tanaka; H Takahashi; M Munekata; N N Rao; A Kornberg
Journal:  Proc Natl Acad Sci U S A       Date:  1997-10-14       Impact factor: 11.205

2.  Vacuolar function in the phosphate homeostasis of the yeast Saccharomyces cerevisiae.

Authors:  K Shirahama; Y Yazaki; K Sakano; Y Wada; Y Ohsumi
Journal:  Plant Cell Physiol       Date:  1996-12       Impact factor: 4.927

3.  Inorganic polyphosphate in Escherichia coli: the phosphate regulon and the stringent response.

Authors:  N N Rao; S Liu; A Kornberg
Journal:  J Bacteriol       Date:  1998-04       Impact factor: 3.490

4.  Identification of functionally relevant populations in enhanced biological phosphorus removal processes based on intracellular polymers profiles and insights into the metabolic diversity and heterogeneity.

Authors:  Nehreen Majed; Tatyana Chernenko; Max Diem; April Z Gu
Journal:  Environ Sci Technol       Date:  2012-04-17       Impact factor: 9.028

5.  Overproduction of YjbB reduces the level of polyphosphate in Escherichia coli: a hypothetical role of YjbB in phosphate export and polyphosphate accumulation.

Authors:  Kei Motomura; Ryuichi Hirota; Nobuteru Ohnaka; Mai Okada; Takeshi Ikeda; Tomohiro Morohoshi; Hisao Ohtake; Akio Kuroda
Journal:  FEMS Microbiol Lett       Date:  2011-05-06       Impact factor: 2.742

6.  Formation of volutin granules in Corynebacterium glutamicum.

Authors:  Srinivas Reddy Pallerla; Sandra Knebel; Tino Polen; Peter Klauth; Juliane Hollender; Volker F Wendisch; Siegfried M Schoberth
Journal:  FEMS Microbiol Lett       Date:  2005-02-01       Impact factor: 2.742

7.  Direct quantification of inorganic polyphosphate in microbial cells using 4'-6-diamidino-2-phenylindole (DAPI).

Authors:  Anna N Kulakova; Darragh Hobbs; Matthew Smithen; Evgeny Pavlov; Jack A Gilbert; John P Quinn; John W McGrath
Journal:  Environ Sci Technol       Date:  2011-08-29       Impact factor: 9.028

8.  Novel assay reveals multiple pathways regulating stress-induced accumulations of inorganic polyphosphate in Escherichia coli.

Authors:  D Ault-Riché; C D Fraley; C M Tzeng; A Kornberg
Journal:  J Bacteriol       Date:  1998-04       Impact factor: 3.490

9.  Proteome changes driven by phosphorus deficiency and recovery in the brown tide-forming alga Aureococcus anophagefferens.

Authors:  Louie L Wurch; Erin M Bertrand; Mak A Saito; Benjamin A S Van Mooy; Sonya T Dyhrman
Journal:  PLoS One       Date:  2011-12-14       Impact factor: 3.240

10.  The transcriptome and proteome of the diatom Thalassiosira pseudonana reveal a diverse phosphorus stress response.

Authors:  Sonya T Dyhrman; Bethany D Jenkins; Tatiana A Rynearson; Mak A Saito; Melissa L Mercier; Harriet Alexander; Leann P Whitney; Andrea Drzewianowski; Vladimir V Bulygin; Erin M Bertrand; Zhijin Wu; Claudia Benitez-Nelson; Abigail Heithoff
Journal:  PLoS One       Date:  2012-03-29       Impact factor: 3.240

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  21 in total

1.  Accumulation and enhanced cycling of polyphosphate by Sargasso Sea plankton in response to low phosphorus.

Authors:  Patrick Martin; Sonya T Dyhrman; Michael W Lomas; Nicole J Poulton; Benjamin A S Van Mooy
Journal:  Proc Natl Acad Sci U S A       Date:  2014-04-21       Impact factor: 11.205

Review 2.  Polyphosphate, platelets, and coagulation.

Authors:  R J Travers; S A Smith; J H Morrissey
Journal:  Int J Lab Hematol       Date:  2015-05       Impact factor: 2.877

3.  Polyphosphate goes from pedestrian to prominent in the marine P-cycle.

Authors:  Karin M Björkman
Journal:  Proc Natl Acad Sci U S A       Date:  2014-05-27       Impact factor: 11.205

4.  Assaying for Inorganic Polyphosphate in Bacteria.

Authors:  Arya Pokhrel; Jordan C Lingo; Frank Wolschendorf; Michael J Gray
Journal:  J Vis Exp       Date:  2019-01-21       Impact factor: 1.355

5.  Bacterial Phosphate Granules Contain Cyclic Polyphosphates: Evidence from 31P Solid-State NMR.

Authors:  Venkata S Mandala; Daniel M Loh; Scott M Shepard; Michael B Geeson; Ivan V Sergeyev; Daniel G Nocera; Christopher C Cummins; Mei Hong
Journal:  J Am Chem Soc       Date:  2020-10-19       Impact factor: 15.419

6.  The biosorption of cadmium and cobalt and iron ions by yeast Cryptococcus humicola at nitrogen starvation.

Authors:  Tatiana Kulakovskaya; Lyubov Ryazanova; Anton Zvonarev; Galina Khokhlova; Vladimir Ostroumov; Mikhail Vainshtein
Journal:  Folia Microbiol (Praha)       Date:  2018-01-19       Impact factor: 2.099

7.  Simple Silica Column-Based Method to Quantify Inorganic Polyphosphates in Cartilage and Other Tissues.

Authors:  Whitaik David Lee; Rahul Gawri; Toshikazu Shiba; Ae-Ri Ji; William L Stanford; Rita A Kandel
Journal:  Cartilage       Date:  2017-03-16       Impact factor: 4.634

8.  Phosphorus sequestration in the form of polyphosphate by microbial symbionts in marine sponges.

Authors:  Fan Zhang; Leah C Blasiak; Jan O Karolin; Ryan J Powell; Chris D Geddes; Russell T Hill
Journal:  Proc Natl Acad Sci U S A       Date:  2015-02-23       Impact factor: 11.205

9.  Sulfurimonas subgroup GD17 cells accumulate polyphosphate under fluctuating redox conditions in the Baltic Sea: possible implications for their ecology.

Authors:  Lars Möller; Peeter Laas; Andreas Rogge; Florian Goetz; Rainer Bahlo; Thomas Leipe; Matthias Labrenz
Journal:  ISME J       Date:  2018-10-05       Impact factor: 10.302

10.  Cytoplasmic inorganic polyphosphate participates in the heavy metal tolerance of Cryptococcus humicola.

Authors:  Nadezhda Andreeva; Lubov Ryazanova; Vladimir Dmitriev; Tatiana Kulakovskaya; Igor Kulaev
Journal:  Folia Microbiol (Praha)       Date:  2014-02-16       Impact factor: 2.099

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