Effects of Mo(VI) on phototrophic hydrogen production by Rhodobacter sphaeroides

Effects of Mo⁶⁺ concentration on phototrophic hydrogen production of Rhodobacter sphaeroides were investigated using lactate as the sole carbon source. Results showed that an increase of Mo⁶⁺ from nil to 1000 µg l⁻¹ led to increases in hydrogen yield, maximum production rate, conversion efficiency,...

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Published inEnvironmental technology Vol. 32; no. 11; pp. 1279 - 1285
Main Authors Fang, Herbert H.P, Li, Ru Ying, Zhang, Tong
Format Journal Article
LanguageEnglish
Published Abingdon TF 01.08.2011
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Abstract Effects of Mo⁶⁺ concentration on phototrophic hydrogen production of Rhodobacter sphaeroides were investigated using lactate as the sole carbon source. Results showed that an increase of Mo⁶⁺ from nil to 1000 µg l⁻¹ led to increases in hydrogen yield, maximum production rate, conversion efficiency, biomass yield and lactate removal. At 100 µg‐Mo l⁻¹, the maximum rate was 12.0 ml h⁻¹ l⁻¹ with a conversion efficiency of 36.1%, the cell yields were 1.11 g‐cell g⁻¹‐lactate and 2.4 g‐cell g⁻¹‐TOC removed. Further increase of Mo⁶⁺ improved hydrogen production only marginally. Degradation of lactate by R. sphaeroides produced not just hydrogen but also acetate, butyrate, i‐valerate, i‐caproate, hexanoate and some unidentified organic intermediates, but did not produce propionate and alcohols. Nitrogenase activity, as measured by the acetylene reduction method, had no clear correlation with either Mo⁶⁺ concentration or hydrogen yield.
AbstractList Effects of Mo6+ concentration on phototrophic hydrogen production of Rhodobacter sphaeroides were investigated using lactate as the sole carbon source. Results showed that an increase of Mo6+ from nil to 1000 ?g l-1 led to increases in hydrogen yield, maximum production rate, conversion efficiency, biomass yield and lactate removal. At 100 ?g-Mo l-1, the maximum rate was 12.0 ml h-1 l-1 with a conversion efficiency of 36.1%, the cell yields were 1.11 g-cell g-1-lactate and 2.4 g-cell g-1-TOC removed. Further increase of Mo6+ improved hydrogen production only marginally. Degradation of lactate by R. sphaeroides produced not just hydrogen but also acetate, butyrate, i-valerate, i-caproate, hexanoate and some unidentified organic intermediates, but did not produce propionate and alcohols. Nitrogenase activity, as measured by the acetylene reduction method, had no clear correlation with either Mo6+ concentration or hydrogen yield.
Effects of Mo⁶⁺ concentration on phototrophic hydrogen production of Rhodobacter sphaeroides were investigated using lactate as the sole carbon source. Results showed that an increase of Mo⁶⁺ from nil to 1000 µg l⁻¹ led to increases in hydrogen yield, maximum production rate, conversion efficiency, biomass yield and lactate removal. At 100 µg‐Mo l⁻¹, the maximum rate was 12.0 ml h⁻¹ l⁻¹ with a conversion efficiency of 36.1%, the cell yields were 1.11 g‐cell g⁻¹‐lactate and 2.4 g‐cell g⁻¹‐TOC removed. Further increase of Mo⁶⁺ improved hydrogen production only marginally. Degradation of lactate by R. sphaeroides produced not just hydrogen but also acetate, butyrate, i‐valerate, i‐caproate, hexanoate and some unidentified organic intermediates, but did not produce propionate and alcohols. Nitrogenase activity, as measured by the acetylene reduction method, had no clear correlation with either Mo⁶⁺ concentration or hydrogen yield.
Effects of Mo(6+) concentration on phototrophic hydrogen production of Rhodobacter sphaeroides were investigated using lactate as the sole carbon source. Results showed that an increase of Mo(6+) from nil to 1000 microg l(-1) led to increases in hydrogen yield, maximum production rate, conversion efficiency, biomass yield and lactate removal. At 100 microg-Mo l(-1), the maximum rate was 12.0 ml h(-1) with a conversion efficiency of 36.1%, the cell yields were 1.11 g-cell g(-1) -lactate and 2.4 g-cell g(-1)-TOC removed. Further increase of Mo(6+) improved hydrogen production only marginally. Degradation of lactate by R. sphaeroides produced not just hydrogen but also acetate, butyrate, i-valerate, i-caproate, hexanoate and some unidentified organic intermediates, but did not produce propionate and alcohols. Nitrogenase activity, as measured by the acetylene reduction method, had no clear correlation with either Mo(6+) concentration or hydrogen yield.
Effects of Mo6+ concentration on phototrophic hydrogen production of Rhodobacter sphaeroides were investigated using lactate as the sole carbon source. Results showed that an increase of Mo6+ from nil to 1000 µg l-1 led to increases in hydrogen yield, maximum production rate, conversion efficiency, biomass yield and lactate removal. At 100 µg-Mo l-1, the maximum rate was 12.0 ml h-1 l-1 with a conversion efficiency of 36.1%, the cell yields were 1.11 g-cell g-1-lactate and 2.4 g-cell g-1-TOC removed. Further increase of Mo6+ improved hydrogen production only marginally. Degradation of lactate by R. sphaeroides produced not just hydrogen but also acetate, butyrate, i-valerate, i-caproate, hexanoate and some unidentified organic intermediates, but did not produce propionate and alcohols. Nitrogenase activity, as measured by the acetylene reduction method, had no clear correlation with either Mo6+ concentration or hydrogen yield.
Effects of Mo 6+ concentration on phototrophic hydrogen production of Rhodobacter sphaeroides were investigated using lactate as the sole carbon source. Results showed that an increase of Mo 6+ from nil to 1000 µg l −1 led to increases in hydrogen yield, maximum production rate, conversion efficiency, biomass yield and lactate removal. At 100 µg-Mo l −1 , the maximum rate was 12.0 ml h −1 l −1 with a conversion efficiency of 36.1%, the cell yields were 1.11 g-cell g −1 -lactate and 2.4 g-cell g −1 -TOC removed. Further increase of Mo 6+ improved hydrogen production only marginally. Degradation of lactate by R. sphaeroides produced not just hydrogen but also acetate, butyrate, i-valerate, i-caproate, hexanoate and some unidentified organic intermediates, but did not produce propionate and alcohols. Nitrogenase activity, as measured by the acetylene reduction method, had no clear correlation with either Mo 6+ concentration or hydrogen yield.
Author Fang, Herbert H.P
Li, Ru Ying
Zhang, Tong
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Issue 11
Keywords Correlation
Rhodobacter sphaeroides
molybdate
Correlation analysis
phototrophic
Biomass
hydrogen
lactate
Hydrogen production
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Snippet Effects of Mo⁶⁺ concentration on phototrophic hydrogen production of Rhodobacter sphaeroides were investigated using lactate as the sole carbon source. Results...
Effects of Mo 6+ concentration on phototrophic hydrogen production of Rhodobacter sphaeroides were investigated using lactate as the sole carbon source....
Effects of Mo(6+) concentration on phototrophic hydrogen production of Rhodobacter sphaeroides were investigated using lactate as the sole carbon source....
Effects of Mo6+ concentration on phototrophic hydrogen production of Rhodobacter sphaeroides were investigated using lactate as the sole carbon source. Results...
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SubjectTerms acetates
Acetylene
acetylene reduction
alcohols
Applied sciences
Bioelectric Energy Sources
Biomass
Bioreactors - microbiology
butyrates
Carbon
Carbon - metabolism
Conversion
Correlation analysis
environmental technology
Exact sciences and technology
Fatty Acids - metabolism
Fermentation
hydrogen
Hydrogen - analysis
Hydrogen - metabolism
Hydrogen production
lactate
Lactates
Lactic Acid - metabolism
molybdate
molybdenum
Molybdenum - metabolism
Molybdenum - pharmacology
nitrogenase
phototrophic
Phototrophic Processes
Pollution
propionic acid
Rhodobacter sphaeroides
Rhodobacter sphaeroides - drug effects
Rhodobacter sphaeroides - growth & development
Rhodobacter sphaeroides - metabolism
Sole
Title Effects of Mo(VI) on phototrophic hydrogen production by Rhodobacter sphaeroides
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