i need it for my school project. We are doing a wanted sign and what is wanted is a type of bacteria and i chose Salmonella typhimurium.
128550
Mariah Carey was hospitalized a few years ago for salmonella poisoning.
478907
Bacteria - Pseudomonas\nFungi      - Trichoderma, Verticillium
120652
http://www.science.siu.edu/microbiology/micr201/chapter8N.html\n\nPotential Energy!  Check it out yourself at the link above.
81187
Try the link in the source. I think that is good enough for  a preliminary search!
625807
ask your school.  they should have a copy.
2948
http://www.freelabs.com/~whitis/biosafety/logo-biohazard.gif\n\nMine's more anti-aliased ; )
253431
For those of you that do not consider testing on animals is necessary, please contact me and I will put your names forward for the next round of clinical tests.\n\nYou can choose from Anthrax, Botulism, Aids, Lassa Fever, Ebola virus, and many others.\n\nStill interested?
307795
Microbiology \n \nAmericans are fascinated by world records. The Guiness Book of World Records is a very popular text because we are interested in the biggest and the best of everything. \n\nIn the late '80s a Dr. Fishelson found a very unusual bacterium called Epulopiscium fishelsoni. This bacterium lives in the gut of a Red Sea surgeonfish. This bacterium can grow up to 600 micrometers long and 80 micrometers wide. The average Epulopiscium fishelsoni is 250 micrometers long and 40 micrometers wide. Six hundred micrometers is a little over a half a millimeter. A millimeter is about as long as the period in the box below. \n\n1millimeter=. \n\nThe human eye can see things as small as 200 micrometers, making this bacteria the first one to actually be visible to the naked eye. To give you a better idea of how big this bacterium really is, "normal-sized" bacteria are only about 0.2 micrometers to about 1.5 micrometers in length or diameter. \nIn the microbial world a record has finally been broken for the biggest bacteria in the world. The record holder for the biggest bacteria recorded on the earth is now (drum roll please): Thiomargarita namibiensis. This behemoth of bacteria is round rather than rectangle like Epulopiscium fishelsoni. It averages about 180 micrometers in diameter. The largest cells have been measured at 750 micrometers. On a cell volume basis the largest Epulopiscium fishelsoni is .003 millimeters cubed. However, Thiomargarita namibiensis' largest cells have an enormous volume of 0.22 millimeters cubed. \n\nNot only is Thiomargarita namibiensis a giant but it is also very unusual. It utilizes sulfates and nitrates to get its energy. This bacteria found off the coast of Namibia is in the sediment at the bottom of the ocean. Basically, Thiomargarita namibiensis gets necessary electrons from sulfates. It then uses nitrates to grab onto the electron instead of oxygen. Those electrons are eventually used to generate energy for the cell. It gets its enormous size because it stores huge amounts of nitrates to hold onto these electrons. It needs to store the nitrates because nitrate levels are very low in these waters most of the time. It isn't until a major storm stirs up the mud at the bottom of the ocean that Thiomargarita namibiensis can get the nitrates it needs. \n\nWhen nitrates are around, these bacteria literally stuff themselves with nitrate. In essence they are a huge ball of nitrates with a very thin layer of cytoplasm (cytoplasm contains all the necessary stuff for bacteria to live, grow, and reproduce) around this nitrate. \n\nThis bacteria may prove useful in other areas of the world's oceans. \n In waters contaminated with nitrates from fertilizers and sewage these organisms may be useful in taking up these nitrates. If too much nitrate is in the water, algae in the water will grow out of control and kill or chase away other inhabitants in the area. Thiomargarita namibiensis could be placed in these nitrate rich waters to remove them and prevent the algae from growing out of control. There needs to be a lot more work done on this unique bacterium. Researchers have yet to get it to grow in a test tube. However, in time this giant among bacteria may be tamed and utilized to help in other areas of the world. \n \nFor more information go to the Science(April 16, 1999, vol. 284, No.5413, pages 415 and 493-495) article. You can't get all the information from the online version unless you are a subscriber. On the other hand, the cover of that issue has a picture of this mighty bacteria. \n\nTake Care and Think Microbiologically!
432282
put bacteria under a microscope and hook it\nup to a pc and project  it would be COOL!!!!!!!
301544
You're trying to design a medium?  Your question is mighty unclear.  \n\nAnyway, you include toxic compounds for many reasons, the main one is that if you have a particular bacterium engineered to to do a particular function, you design a co-effecting gene that permits the bacterium live in the presence of the toxic compund, and die if it loses the ability to survive in it.  This ensures that if the engineered genes are unstable, both genes are likely to fail, thus any defects or errors in the plasmid or inserted sequence that does your valuable work and allows it to survive in the toxic compounds will kill the bad batches.\n\npH indicators you insert for certain types of bacteria to determine the age (if acid or basic products are developed from the metabolism), resource availability (i.e. if the culture needs to be transferred to new media) and if what you have is contaminated or not (i.e. if you have a sample that's supposed to be always neutral or at a certain pH and suddenly your indicators start going bananas... not good.)\n\nAnd for the rest, you design differential/selective media for the single purpose of making sure your samples are pure and devoid of other species (eliminates the competition) and that if anything goes wrong, that it doesn't go wrong with your whole batch.  \n\nAlways flame your loops :)
263795
I have done a search on it and I came up with these links... I hope they help!!!
332073
Salmonellosis is an infection with a bacteria called Salmonella. Most persons infected with Salmonella develop diarrhea, fever, and abdominal cramps
87373
Microbe Hunter by Paul de Kruif\n\nA very fascinating book.
78703
Try:\nhttp://www.nlm.nih.gov/medlineplus/ency/article/001240.htm
554624
There are 3 main types of Salmonella. Salmonella typhi, S. paratyphi A, S. paratyphi B.  These all cause Enteric fever or typhoid fever. It is a serious Infection but with proper treatment rarely fatal\n\nFirst line drugs is a  fluroquinolone called ciprofloxacin very effective 500mg taken 12th hourly for 10 days gives complete cure. \nOther drugs used are \nChloramphenicol \nCotrimoxazole\nAmpicillin\nAmoxycillin\n\nMany Salmonella strains are resistant to the above 4 drugs now, if the strain is found to resistant to Ciprofloxacin as well a cephalosporin drug called Ceftriaxone is given. it is reserved for multi drug resistant Salmonella.\n\nYou have to take medicine for Salmonella cos the bacteria can colonize the Gall bladder which will lead to a Carrier state.\n\nThe usual test to diagnose it is called the Widal test using blood in the first week of illness.\n\nThe signs are \nDiarrhea with blood alternating with constipation\nhigh fever \nmild splenomegaly\nCharacteristic red color spots on the chest called rose spots (very rarely seen)
47003
it's from the bile in the stomach ... also, some food-borne bacteria can create significantly colored waste
278440
just go to wikipedia and search antibiotics.