Abstract:
The formation and maintenance of microbial biofilms is shown to be dependent on signaling pathways mediated by cyclic di-GMP. In the absence of such signaling, microbes detach from a biofilm, and thereby become more readily treatable with conventional antibiotics. Chemical or biological means that interfere with cyclic-di-GMP signaling induce biofilm dissolution, providing for a new class of antibiotics. In one embodiment of the invention, the biofilm inhibitor is an analog of cyclic-di-GMP, which competitively or non-competitively blocks signaling. In another embodiment of the invention, the biofilm inhibitor is a genetic sequence that interferes with cyclic-di-GMP synthesis or signaling.
Abstract:
The present disclosure provides non-naturally occurring c1 microorganisms useful for the production of lactate and related compositions, as well as methods for the biologically production of lactate. In specific embodiments, the present disclosure provides non-naturally occurring methanotrophic bacteria which are useful for producing lactate from c1 substrates.
Abstract:
The formation and maintenance of microbial biofilms is shown to be dependent on signaling pathways mediated by cyclic di-GMP. In the absence of such signaling, microbes detach from a biofilm, and thereby become more readily treatable with conventional antibiotics. Chemical or biological means that interfere with cyclic-di-GMP signaling induce biofilm dissolution, providing for a new class of antibiotics. In one embodiment of the invention, the biofilm inhibitor is an analog of cyclic-di-GMP, which competitively or non-competitively blocks signaling. In another embodiment of the invention, the biofilm inhibitor is a genetic sequence that interferes with cyclic-di-GMP synthesis or signaling.