Investigation of useful carbon tracers for 13C-metabolic flux analysis of Escherichia coli by considering five experimentally determined flux distributions
The 13C-MFA experiments require an optimal design since the precision or confidence intervals of the estimated flux levels depends on factors such as the composition of 13C-labeled carbon sources, as well as the metabolic flux distribution of interest. In this study, useful compositions of 13C-label...
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Published in | Metabolic engineering communications Vol. 3; pp. 187 - 195 |
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Main Authors | , , , , |
Format | Journal Article |
Language | English |
Published |
Elsevier B.V
01.12.2016
Elsevier |
Subjects | |
Online Access | Get full text |
ISSN | 2214-0301 2214-0301 |
DOI | 10.1016/j.meteno.2016.06.001 |
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Abstract | The 13C-MFA experiments require an optimal design since the precision or confidence intervals of the estimated flux levels depends on factors such as the composition of 13C-labeled carbon sources, as well as the metabolic flux distribution of interest. In this study, useful compositions of 13C-labeled glucose for 13C-metabolic flux analysis (13C-MFA) of Escherichia coli are investigated using a computer simulation of the stable isotope labeling experiment. Following the generation of artificial mass spectra datasets of amino acid fragments using five literature-reported flux distributions of E. coli, the best fitted flux distribution and the 95% confidence interval were estimated by the 13C-MFA procedure. A comparison of the precision scores showed that [1, 2-13C]glucose and a mixture of [1-13C] and [U-13C]glucose at 8:2 are one of the best carbon sources for a precise estimation of flux levels of the pentose phosphate pathway, glycolysis and the TCA cycle. Although the precision scores of the anaplerotic and glyoxylate pathway reactions were affected by both the carbon source and flux distribution, it was also shown that the mixture of non-labeled, [1-13C], and [U-13C]glucose at 4:1:5 was specifically effective for the flux estimation of the glyoxylate pathway reaction. These findings were confirmed by wet 13C-MFA experiments.
•Useful compositions of 13C-labeled glucose are investigated for 13C-MFA of E. coli.•Computer simulations revealed that [1,2-13C] was one of the best first choices.•Mixture of non-labeled, [1-13C] and [U-13C] at 0:8:2 was also suitable for 13C-MFA.•Mixture at 4:1:5 was specifically effective for estimation of glyoxylate pathway.•The wet 13C-MFA experiments of E. coli confirmed the findings. |
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AbstractList | The
13
C-MFA experiments require an optimal design since the precision or confidence intervals of the estimated flux levels depends on factors such as the composition of
13
C-labeled carbon sources, as well as the metabolic flux distribution of interest. In this study, useful compositions of
13
C-labeled glucose for
13
C-metabolic flux analysis (
13
C-MFA) of
Escherichia coli
are investigated using a computer simulation of the stable isotope labeling experiment. Following the generation of artificial mass spectra datasets of amino acid fragments using five literature-reported flux distributions of
E. coli
, the best fitted flux distribution and the 95% confidence interval were estimated by the
13
C-MFA procedure. A comparison of the precision scores showed that [1, 2-
13
C]glucose and a mixture of [1-
13
C] and [U-
13
C]glucose at 8:2 are one of the best carbon sources for a precise estimation of flux levels of the pentose phosphate pathway, glycolysis and the TCA cycle. Although the precision scores of the anaplerotic and glyoxylate pathway reactions were affected by both the carbon source and flux distribution, it was also shown that the mixture of non-labeled, [1-
13
C], and [U-
13
C]glucose at 4:1:5 was specifically effective for the flux estimation of the glyoxylate pathway reaction. These findings were confirmed by wet
13
C-MFA experiments.
•
Useful compositions of
13
C-labeled glucose are investigated for
13
C-MFA of
E. coli
.
•
Computer simulations revealed that [1,2-
13
C] was one of the best first choices.
•
Mixture of non-labeled, [1-
13
C] and [U-
13
C] at 0:8:2 was also suitable for
13
C-MFA.
•
Mixture at 4:1:5 was specifically effective for estimation of glyoxylate pathway.
•
The wet
13
C-MFA experiments of
E. coli
confirmed the findings. The ¹³C-MFA experiments require an optimal design since the precision or confidence intervals of the estimated flux levels depends on factors such as the composition of ¹³C-labeled carbon sources, as well as the metabolic flux distribution of interest. In this study, useful compositions of ¹³C-labeled glucose for ¹³C-metabolic flux analysis (¹³C-MFA) of Escherichia coli are investigated using a computer simulation of the stable isotope labeling experiment. Following the generation of artificial mass spectra datasets of amino acid fragments using five literature-reported flux distributions of E. coli, the best fitted flux distribution and the 95% confidence interval were estimated by the ¹³C-MFA procedure. A comparison of the precision scores showed that [1, 2-¹³C]glucose and a mixture of [1-¹³C] and [U-¹³C]glucose at 8:2 are one of the best carbon sources for a precise estimation of flux levels of the pentose phosphate pathway, glycolysis and the TCA cycle. Although the precision scores of the anaplerotic and glyoxylate pathway reactions were affected by both the carbon source and flux distribution, it was also shown that the mixture of non-labeled, [1-¹³C], and [U-¹³C]glucose at 4:1:5 was specifically effective for the flux estimation of the glyoxylate pathway reaction. These findings were confirmed by wet ¹³C-MFA experiments. The 13C-MFA experiments require an optimal design since the precision or confidence intervals of the estimated flux levels depends on factors such as the composition of 13C-labeled carbon sources, as well as the metabolic flux distribution of interest. In this study, useful compositions of 13C-labeled glucose for 13C-metabolic flux analysis (13C-MFA) of Escherichia coli are investigated using a computer simulation of the stable isotope labeling experiment. Following the generation of artificial mass spectra datasets of amino acid fragments using five literature-reported flux distributions of E. coli, the best fitted flux distribution and the 95% confidence interval were estimated by the 13C-MFA procedure. A comparison of the precision scores showed that [1, 2-13C]glucose and a mixture of [1-13C] and [U-13C]glucose at 8:2 are one of the best carbon sources for a precise estimation of flux levels of the pentose phosphate pathway, glycolysis and the TCA cycle. Although the precision scores of the anaplerotic and glyoxylate pathway reactions were affected by both the carbon source and flux distribution, it was also shown that the mixture of non-labeled, [1-13C], and [U-13C]glucose at 4:1:5 was specifically effective for the flux estimation of the glyoxylate pathway reaction. These findings were confirmed by wet 13C-MFA experiments. •Useful compositions of 13C-labeled glucose are investigated for 13C-MFA of E. coli.•Computer simulations revealed that [1,2-13C] was one of the best first choices.•Mixture of non-labeled, [1-13C] and [U-13C] at 0:8:2 was also suitable for 13C-MFA.•Mixture at 4:1:5 was specifically effective for estimation of glyoxylate pathway.•The wet 13C-MFA experiments of E. coli confirmed the findings. The 13C-MFA experiments require an optimal design since the precision or confidence intervals of the estimated flux levels depends on factors such as the composition of 13C-labeled carbon sources, as well as the metabolic flux distribution of interest. In this study, useful compositions of 13C-labeled glucose for 13C-metabolic flux analysis (13C-MFA) of Escherichia coli are investigated using a computer simulation of the stable isotope labeling experiment. Following the generation of artificial mass spectra datasets of amino acid fragments using five literature-reported flux distributions of E. coli, the best fitted flux distribution and the 95% confidence interval were estimated by the 13C-MFA procedure. A comparison of the precision scores showed that [1, 2-13C]glucose and a mixture of [1-13C] and [U-13C]glucose at 8:2 are one of the best carbon sources for a precise estimation of flux levels of the pentose phosphate pathway, glycolysis and the TCA cycle. Although the precision scores of the anaplerotic and glyoxylate pathway reactions were affected by both the carbon source and flux distribution, it was also shown that the mixture of non-labeled, [1-13C], and [U-13C]glucose at 4:1:5 was specifically effective for the flux estimation of the glyoxylate pathway reaction. These findings were confirmed by wet 13C-MFA experiments. Keywords: 13C-metabolic flux analysis, Design of experiment, 13C-labeling experiment, Escherichia coli, Computer simulation The 13C-MFA experiments require an optimal design since the precision or confidence intervals of the estimated flux levels depends on factors such as the composition of 13C-labeled carbon sources, as well as the metabolic flux distribution of interest. In this study, useful compositions of 13C-labeled glucose for 13C-metabolic flux analysis (13C-MFA) of Escherichia coli are investigated using a computer simulation of the stable isotope labeling experiment. Following the generation of artificial mass spectra datasets of amino acid fragments using five literature-reported flux distributions of E. coli, the best fitted flux distribution and the 95% confidence interval were estimated by the 13C-MFA procedure. A comparison of the precision scores showed that [1, 2-13C]glucose and a mixture of [1-13C] and [U-13C]glucose at 8:2 are one of the best carbon sources for a precise estimation of flux levels of the pentose phosphate pathway, glycolysis and the TCA cycle. Although the precision scores of the anaplerotic and glyoxylate pathway reactions were affected by both the carbon source and flux distribution, it was also shown that the mixture of non-labeled, [1-13C], and [U-13C]glucose at 4:1:5 was specifically effective for the flux estimation of the glyoxylate pathway reaction. These findings were confirmed by wet 13C-MFA experiments.The 13C-MFA experiments require an optimal design since the precision or confidence intervals of the estimated flux levels depends on factors such as the composition of 13C-labeled carbon sources, as well as the metabolic flux distribution of interest. In this study, useful compositions of 13C-labeled glucose for 13C-metabolic flux analysis (13C-MFA) of Escherichia coli are investigated using a computer simulation of the stable isotope labeling experiment. Following the generation of artificial mass spectra datasets of amino acid fragments using five literature-reported flux distributions of E. coli, the best fitted flux distribution and the 95% confidence interval were estimated by the 13C-MFA procedure. A comparison of the precision scores showed that [1, 2-13C]glucose and a mixture of [1-13C] and [U-13C]glucose at 8:2 are one of the best carbon sources for a precise estimation of flux levels of the pentose phosphate pathway, glycolysis and the TCA cycle. Although the precision scores of the anaplerotic and glyoxylate pathway reactions were affected by both the carbon source and flux distribution, it was also shown that the mixture of non-labeled, [1-13C], and [U-13C]glucose at 4:1:5 was specifically effective for the flux estimation of the glyoxylate pathway reaction. These findings were confirmed by wet 13C-MFA experiments. |
Author | Okahashi, Nobuyuki Matsuda, Fumio Toya, Yoshihiro Maeda, Kousuke Shimizu, Hiroshi |
AuthorAffiliation | Department of Bioinformatic Engineering, Graduate School of Information Science and Technology, Osaka University, 1-5 Yamadaoka, Suita, Osaka 565-0871, Japan |
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Author_xml | – sequence: 1 givenname: Kousuke surname: Maeda fullname: Maeda, Kousuke email: kousuke_maeda@ist.osaka-u.ac.jp – sequence: 2 givenname: Nobuyuki surname: Okahashi fullname: Okahashi, Nobuyuki email: n-okahashi@ist.osaka-u.ac.jp – sequence: 3 givenname: Yoshihiro surname: Toya fullname: Toya, Yoshihiro email: ytoya@ist.osaka-u.ac.jp – sequence: 4 givenname: Fumio surname: Matsuda fullname: Matsuda, Fumio email: fmatsuda@ist.osaka-u.ac.jp – sequence: 5 givenname: Hiroshi surname: Shimizu fullname: Shimizu, Hiroshi email: shimizu@ist.osaka-u.ac.jp |
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Keywords | 13C-labeling experiment Computer simulation 13C-metabolic flux analysis Escherichia coli Design of experiment |
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SubjectTerms | 13C-labeling experiment 13C-metabolic flux analysis amino acids carbon Computer simulation confidence interval data collection Design of experiment Escherichia coli glucose glycolysis isotope labeling pentose phosphate cycle stable isotopes tricarboxylic acid cycle |
Title | Investigation of useful carbon tracers for 13C-metabolic flux analysis of Escherichia coli by considering five experimentally determined flux distributions |
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