Acetobacteraceae (2) | ![]() |
Anaplasmataceae (1) | ![]() |
Bacteroidaceae (8) | ![]() |
Bartonella (8) | ![]() |
Brucella (7) | ![]() |
Campylobacter (27) | ![]() |
Chlamydiales (3) | ![]() |
Enterobacteriaceae (5) | ![]() |
Escherichia (196) | ![]() |
Gram-negative bacteria (3) | ![]() |
Helicobacter (3) | ![]() |
Klebsiella (3) | ![]() |
Pasteurella (1) | ![]() |
Proteus (5) | ![]() |
Pseudomonadaceae (41) | ![]() |
Pseudomonadales (1) | ![]() |
Rhizobiaceae (13) | ![]() |
Rickettsieae (2) | ![]() |
Salmonella (106) | ![]() |
Serratia (1) | ![]() |
Shigella (2) | ![]() |
Veillonellaceae (1) | ![]() |
Vibrio (2) | ![]() |
Xenorhabdus (2) | ![]() |
Zymomona (1) | ![]() |
but reduced infections by Chlamydia spp. and pathogenic E coli according to the report. In the study Bednorz and her collaborators compared piglets fed with E. faecium to those in a control group.
The first tetracyclines discovered in the late 1940s ushered in a new class of powerful antibacterial agents to treat high-mortality diseases among them anthrax and plague as well as such bacterial infections as chlamydia syphilis and Lyme disease.
The same molecular machinery employed by Pseudomonas syringae is used also by a host of microbes to cause diseases that afflict people including salmonella the plague respiratory disease and chlamydia.
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