A newly isolated Bacillus subtilis strain produced its highest PHB yield when fed honey rather than glucose or LB medium.
A study identifies 2-methylbutyric acid from Bacillus subtilis as a potent inhibitor of Agroathelia rolfsii, revealing ...
A study found that a hay-isolated strain of Bacillus subtilis efficiently produces both starch and protein enzymes when fed ...
In the study of bacteria, a longstanding dogma has held that two molecular machines—RNA polymerase, which leads the way in transcribing DNA into RNA, and ribosomes, which bring up the rear translating ...
Because natural resources are always limited, the right strategy decides about success in life. This also applies to spore-forming bacteria. Bacillus subtilis can survive unfavorable living conditions ...
Bacillus subtilis can grow a semiconductor on its surface and use light generated electrons to boost chemical production without further redesign of its production pathways.
B. subtilis has a different control switch, called guanosine triphosphate, or GTP. GTP plays two roles: it powers core processes such as protein synthesis and it acts as a regulatory signal governing ...
The survival of Bacillus subtilis spores in dicalcium phosphate, lactose, and corn starch and in their binary mixtures depends on the compressional properties of these materials and on parameters ...
The bacterium Bacillus subtilis can be found anywhere from soil to a human’s gastrointestinal tract. Known as hay or grass bacillus, B. subtilis is often used as an agricultural plant to deter pests.
The survival of Bacillus subtilis spores in dicalcium phosphate, lactose, and corn starch and in their binary mixtures depends on the compressional properties of these materials and on parameters ...
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