Javascript must be enabled to continue!
Use of Probiotics to Control Aflatoxin Production in Peanut Grains
View through CrossRef
Probiotic microorganisms (Saccharomyces cerevisiae var. boulardii, S. cerevisiae UFMG 905, and Lactobacillus delbrueckii UFV H2b20) were evaluated as biological control agents to reduce aflatoxin and spore production by Aspergillus parasiticus IMI 242695 in peanut. Suspensions containing the probiotics alone or in combinations were tested by sprinkling on the grains followed by incubation for seven days at 25°C. All probiotic microorganisms, in live and inactivated forms, significantly reduced A. parasiticus sporulation, but the best results were obtained with live cells. The presence of probiotics also altered the color of A. parasiticus colonies but not the spore morphology. Reduction in aflatoxin production of 72.8 and 65.8% was observed for S. boulardii and S. cerevisiae, respectively, when inoculated alone. When inoculated in pairs, all probiotic combinations reduced significantly aflatoxin production, and the best reduction was obtained with S. boulardii plus L. delbrueckii (96.1%) followed by S. boulardii plus S. cerevisiae and L. delbrueckii plus S. cerevisiae (71.1 and 66.7%, resp.). All probiotics remained viable in high numbers on the grains even after 300 days. The results of the present study suggest a different use of probiotics as an alternative treatment to prevent aflatoxin production in peanut grains.
Title: Use of Probiotics to Control Aflatoxin Production in Peanut Grains
Description:
Probiotic microorganisms (Saccharomyces cerevisiae var.
boulardii, S.
cerevisiae UFMG 905, and Lactobacillus delbrueckii UFV H2b20) were evaluated as biological control agents to reduce aflatoxin and spore production by Aspergillus parasiticus IMI 242695 in peanut.
Suspensions containing the probiotics alone or in combinations were tested by sprinkling on the grains followed by incubation for seven days at 25°C.
All probiotic microorganisms, in live and inactivated forms, significantly reduced A.
parasiticus sporulation, but the best results were obtained with live cells.
The presence of probiotics also altered the color of A.
parasiticus colonies but not the spore morphology.
Reduction in aflatoxin production of 72.
8 and 65.
8% was observed for S.
boulardii and S.
cerevisiae, respectively, when inoculated alone.
When inoculated in pairs, all probiotic combinations reduced significantly aflatoxin production, and the best reduction was obtained with S.
boulardii plus L.
delbrueckii (96.
1%) followed by S.
boulardii plus S.
cerevisiae and L.
delbrueckii plus S.
cerevisiae (71.
1 and 66.
7%, resp.
).
All probiotics remained viable in high numbers on the grains even after 300 days.
The results of the present study suggest a different use of probiotics as an alternative treatment to prevent aflatoxin production in peanut grains.
Related Results
Incidence of mycotoxigenic fungi during processing and storage of bambara groundnut (Vigna subterranea) composite flour
Incidence of mycotoxigenic fungi during processing and storage of bambara groundnut (Vigna subterranea) composite flour
Fungal contamination of food commodities is a global food security challenge that impacts negatively on the health of consumers. Mycotoxins are produced as secondary metabolites by...
Exposure of children 4 to 6 months of age to aflatoxin in Kisumu County, Kenya
Exposure of children 4 to 6 months of age to aflatoxin in Kisumu County, Kenya
Contamination of foods by aflatoxins is a global health problem in both developed and developing countries. Exposure to the toxin s is associated with a range of effects on health ...
Aflatoxin exposure among children of age 12–59 Months in Butajira District, South-Central Ethiopia: a community based cross-sectional study
Aflatoxin exposure among children of age 12–59 Months in Butajira District, South-Central Ethiopia: a community based cross-sectional study
Abstract
Background
The continued provision of safe food, free of aflatoxin remains a huge challenge in developing countries. Despite several favour...
Influence of Plant Population and Harvest Date on Peanut (Arachis hypogaea) Yield and Aflatoxin Contamination
Influence of Plant Population and Harvest Date on Peanut (Arachis hypogaea) Yield and Aflatoxin Contamination
ABSTRACT
Research was conducted in Malawi at Mpatsanjoka farm in Salima district during the 2015-2016 and 2016-2017 growing cycles to determine interactions of plant...
Evaluation of Biocontrol Potentiality of Bacillus subtilis on Aflatoxins Production in Grains
Evaluation of Biocontrol Potentiality of Bacillus subtilis on Aflatoxins Production in Grains
Aims: This study aimed to isolate Aspergillus species from peanut (Arachis hypogaea) and toor dhal (Cajanus cajan), extraction and characterize of aflatoxin, assessment of its degr...
Aflatoxin Exposure among Children of age 12-59 Months in Butajira District, South-Central Ethiopia: a community based cross-sectional study
Aflatoxin Exposure among Children of age 12-59 Months in Butajira District, South-Central Ethiopia: a community based cross-sectional study
Abstract
Background
The continued provision of safe food, free of aflatoxin remains a huge challenge in developing countries. Despite several favourable climatic condition...
Influence of Planting Date on Aflatoxin Accumulation in Bt, non‐Bt, and Tropical non‐Bt Hybrids
Influence of Planting Date on Aflatoxin Accumulation in Bt, non‐Bt, and Tropical non‐Bt Hybrids
Aflatoxin, produced by the fungus
Aspergillus flavus
Link, reduces the value of corn (
Zea mays
L.) ...
Rapid Screening Method for Resistance to Aflatoxin Production in Peanut1
Rapid Screening Method for Resistance to Aflatoxin Production in Peanut1
Abstract
A simple, economical, and rapid method to detect aflatoxin in peanut is described in this paper. The extract from 1 g of peanut is added to 1 mL of NH4H2PO4...

