Patent classifications
A23B7/155
<i>Leuconostoc mesenteroides </i>CJLM181 strain producing reduced amount of gas, and kimchi production method using same
The present application relates to a Leuconostoc mesenteroides CJLM181 strain (KCTC 13042BP) producing decreased amounts of gas, a fermentation starter composition comprising the same, and a method for preparing kimchi using the strain.
METHOD OF USING BIOSURFACTANT-PRODUCING BACTERIA AGAINST FUNGAL AND BACTERIAL PATHOGENS
The disclosure provides a method of using a bacterium that is a Bacillus, Streptomyces, Microbacterium, Micrococcus, Rhodococcus, Pseudomonas, Arthrobacter or Staphylococcus and/or a biosurfactant-containing extract isolated from said bacterium, as an antimicrobial agent against a foodborne or a plant bacterial or fungal pathogen, wherein the bacterium optionally comprises at least 3 of bacilysin, difficidin, macrolactin h, bacillaene, bacillomycin d, fengycin, surfactin and bacillibactin. The disclosure also provides a plant or plant part bacterized or coated with a Bacillus or a biosurfactant-containing extract isolated from the Bacillus and a method of protecting a plant or plant part against a bacterial or fungal pathogen comprising bacterizing or coating the plant or plant part with a Bacillus or a biosurfactant-containing extract isolated from the Bacillus, wherein the Bacillus produces or the extract contains at least 3 of bacilysin, difficidin, macrolactin h, bacillaene, bacillomycin d, fengycin, surfactin and bacillibactin.
METHOD OF USING BIOSURFACTANT-PRODUCING BACTERIA AGAINST FUNGAL AND BACTERIAL PATHOGENS
The disclosure provides a method of using a bacterium that is a Bacillus, Streptomyces, Microbacterium, Micrococcus, Rhodococcus, Pseudomonas, Arthrobacter or Staphylococcus and/or a biosurfactant-containing extract isolated from said bacterium, as an antimicrobial agent against a foodborne or a plant bacterial or fungal pathogen, wherein the bacterium optionally comprises at least 3 of bacilysin, difficidin, macrolactin h, bacillaene, bacillomycin d, fengycin, surfactin and bacillibactin. The disclosure also provides a plant or plant part bacterized or coated with a Bacillus or a biosurfactant-containing extract isolated from the Bacillus and a method of protecting a plant or plant part against a bacterial or fungal pathogen comprising bacterizing or coating the plant or plant part with a Bacillus or a biosurfactant-containing extract isolated from the Bacillus, wherein the Bacillus produces or the extract contains at least 3 of bacilysin, difficidin, macrolactin h, bacillaene, bacillomycin d, fengycin, surfactin and bacillibactin.
METHODS FOR ISOLATING ANTIMICROBIAL MICROORGANISMS FROM AGRICULTURAL PRODUCTS AND USES THEREOF
Provided herein are compositions comprising one or more antimicrobial microorganism and methods of use thereof for inhibiting spoilage of agricultural products.
METHODS FOR ISOLATING ANTIMICROBIAL MICROORGANISMS FROM AGRICULTURAL PRODUCTS AND USES THEREOF
Provided herein are compositions comprising one or more antimicrobial microorganism and methods of use thereof for inhibiting spoilage of agricultural products.
Methods and compositions for identifying mutations that decrease expression of PPO11
The invention provides compositions and methods related to selective inhibition of PPO11 and use for improving shelf life of a plant or parts thereof. In accordance with the invention, for example, compositions for topical application to a plant or part thereof, are provided that can reduce browning of the plant or part thereof to extend shelf life.
BACILLUS VELEZENSIS, CULTURE METHOD THEREFOR AND APPLICATION THEREOF
It relates to Bacillus velezensis, a culture method and use thereof; Bacillus velezensis TA-3-BV serving as an endogenous antagonistic strain of sweet cherry for the first time, and a nucleotide sequence of 16S rDNA of the Bacillus velezensis TA-3-BV is shown as SEQ ID NO. 1. The Bacillus velezensis TA-3-BV has board-spectrum antibacterial activity for sweet cherry, has an inhibitory effect on a variety of pathogenic fungi, and especially has an excellent inhibitory effect on Rhizopus stolonifer serving as a soft rot pathogen of sweet cherry, with an inhibition rate of 69.82±1.43%; in addition, the Bacillus velezensis TA-3-BV has a good inhibitory effect on the postharvest rot of sweet cherry fruits, can slow down the rot process of fruits, can delay the rot of fruits by 2-3 d, thereby providing a novel method for postharvest preservation of sweet cherry.
BACILLUS VELEZENSIS, CULTURE METHOD THEREFOR AND APPLICATION THEREOF
It relates to Bacillus velezensis, a culture method and use thereof; Bacillus velezensis TA-3-BV serving as an endogenous antagonistic strain of sweet cherry for the first time, and a nucleotide sequence of 16S rDNA of the Bacillus velezensis TA-3-BV is shown as SEQ ID NO. 1. The Bacillus velezensis TA-3-BV has board-spectrum antibacterial activity for sweet cherry, has an inhibitory effect on a variety of pathogenic fungi, and especially has an excellent inhibitory effect on Rhizopus stolonifer serving as a soft rot pathogen of sweet cherry, with an inhibition rate of 69.82±1.43%; in addition, the Bacillus velezensis TA-3-BV has a good inhibitory effect on the postharvest rot of sweet cherry fruits, can slow down the rot process of fruits, can delay the rot of fruits by 2-3 d, thereby providing a novel method for postharvest preservation of sweet cherry.
Chips formed by slicing with apple cell clean water jet scalpel and differential temperature combined with differential pressure puffing and processing technology
The disclosure provides chips formed by slicing with an apple cell clean water jet scalpel and a processing technology. The processing technology comprises the following specific steps: harvesting fresh fruits, sorting, peeling, slicing, drying and packaging to obtain the apple crispy chip. According to the disclosure, the tangxin apple is peeled by adopting an ultrahigh pressure water jet flow cutting technology, cut into slices with a thickness of 5 mm and inoculated for 15 min in 30° C. and 30% Lactobacillus brevis fermentation broth. PPO is a terminal oxidase with Cu.sup.2+ as a prosthetic group, and Lactobacillus brevis and Lactobacillus plantarum are complexed with Cu.sup.2+, leading to rapid oxygen consumption to generate organic acid and CO.sub.2, quickly reduction of pH and creation of an approximate oxygen-free environment to effectively inhibit PPO activity while removing oxygen required in enzymatic browning, thereby effectively inhibiting browning.
Chips formed by slicing with apple cell clean water jet scalpel and differential temperature combined with differential pressure puffing and processing technology
The disclosure provides chips formed by slicing with an apple cell clean water jet scalpel and a processing technology. The processing technology comprises the following specific steps: harvesting fresh fruits, sorting, peeling, slicing, drying and packaging to obtain the apple crispy chip. According to the disclosure, the tangxin apple is peeled by adopting an ultrahigh pressure water jet flow cutting technology, cut into slices with a thickness of 5 mm and inoculated for 15 min in 30° C. and 30% Lactobacillus brevis fermentation broth. PPO is a terminal oxidase with Cu.sup.2+ as a prosthetic group, and Lactobacillus brevis and Lactobacillus plantarum are complexed with Cu.sup.2+, leading to rapid oxygen consumption to generate organic acid and CO.sub.2, quickly reduction of pH and creation of an approximate oxygen-free environment to effectively inhibit PPO activity while removing oxygen required in enzymatic browning, thereby effectively inhibiting browning.