Pathogenic bacteria

Pathogenic bacteria are bacteria that can cause disease.[1] This article deals with human pathogenic bacteria. Although most bacteria are harmless or often beneficial, some are pathogenic, with the number of species estimated as fewer than a hundred that are seen to cause infectious diseases in humans.[2] By contrast, several thousand species exist in the human digestive system.

Bacterial infection
Clostridium tetani is a pathogenic bacterium that causes tetanus

One of the bacterial diseases with the highest disease burden is tuberculosis, caused by Mycobacterium tuberculosis bacteria, which kills about 2 million people a year, mostly in sub-Saharan Africa. Pathogenic bacteria contribute to other globally important diseases, such as pneumonia, which can be caused by bacteria such as Streptococcus and Pseudomonas, and foodborne illnesses, which can be caused by bacteria such as Shigella, Campylobacter, and Salmonella. Pathogenic bacteria also cause infections such as tetanus, typhoid fever, diphtheria, syphilis, and leprosy. Pathogenic bacteria are also the cause of high infant mortality rates in developing countries.[3]

Koch's postulates are the standard to establish a causative relationship between a microbe and a disease.


Each species has specific effect and causes symptoms in people who are infected. Some, if not most people who are infected with a pathogenic bacteria do not have symptoms. Immunocompromised individuals are more susceptible to pathogenic bacteria.

Pathogenic susceptibility

Some pathogenic bacteria cause disease under certain conditions, such as entry through the skin via a cut, through sexual activity or through a compromised immune function.

An abscess caused by opportunistic S. aureus bacteria.

Streptococcus and Staphylococcus are part of the normal skin microbiota and typically reside on healthy skin or in the nasopharangeal region. Yet these species can potentially initiate skin infections. They are also able to cause sepsis, pneumonia or meningitis. These infections can become quite serious creating a systemic inflammatory response resulting in massive vasodilation, shock, and death.[4]

Other bacteria are opportunistic pathogens and cause disease mainly in people suffering from immunosuppression or cystic fibrosis. Examples of these opportunistic pathogens include Pseudomonas aeruginosa, Burkholderia cenocepacia, and Mycobacterium avium.[5][6]


Obligate intracellular parasites (e.g. Chlamydophila, Ehrlichia, Rickettsia) have the ability to only grow and replicate inside other cells. Even these intracellular infections may be asymptomatic, requiring an incubation period. An example of this is Rickettsia which causes typhus. Another causes Rocky Mountain spotted fever.

Chlamydia is a phylum of intracellular parasites. These pathogens can cause pneumonia or urinary tract infection and may be involved in coronary heart disease.[7]

Other groups of intracellular bacterial pathogens include Salmonella, Neisseria, Brucella, Mycobacterium, Nocardia, Listeria, Francisella, Legionella, and Yersinia pestis. These can exist intracellularly, but can exist outside of host cells.

Infections in specific tissue

Bacterial pathogens often cause infection in specific areas of the body. Others are generalists.

Mechanisms of damage

The symptoms of disease appear as pathogenic bacteria damage host tissues or interfere with their function. The bacteria can damage host cells directly. They can also cause damage indirectly by provoking an immune response that inadvertently damages host cells.[16]


Once pathogens attach to host cells, they can cause direct damage as the pathogens use the host cell for nutrients and produce waste products.[17] For example, Streptococcus mutans, a component of dental plaque, metabolizes dietary sugar and produces acid as a waste product. The acid decalcifies the tooth surface to cause dental caries.[18] However, toxins produced by bacteria cause most of the direct damage to host cells.[17]

Toxin production

Protein structure of Botulinum toxin 3BTA

Endotoxins are the lipid portions of lipopolysaccharides that are part of the outer membrane of the cell wall of gram negative bacteria. Endotoxins are released when the bacteria lyses, which is why after antibiotic treatment, symptoms can worsen at first as the bacteria are killed and they release their endotoxins. Exotoxins are secreted into the surrounding medium or released when the bacteria die and the cell wall breaks apart.[19]


An excessive or inappropriate immune response triggered by an infection may damage host cells.[1]

Survival in host


Iron is required for humans, as well as the growth of most bacteria. To obtain free iron, some pathogens secrete proteins called siderophores, which take the iron away from iron-transport proteins by binding to the iron even more tightly. Once the iron-siderophore complex is formed, it is taken up by siderophore receptors on the bacterial surface and then that iron is brought into the bacterium.[19]


Typically identification is done by growing the organism in a wide range of cultures which can take up to 48 hours. The growth is then visually or genomically identified. The cultured organism is then subjected to various assays to observe reactions to help further identify species and strain.[20]


Bacterial infections may be treated with antibiotics, which are classified as bacteriocidal if they kill bacteria or bacteriostatic if they just prevent bacterial growth. There are many types of antibiotics and each class inhibits a process that is different in the pathogen from that found in the host. For example, the antibiotics chloramphenicol and tetracyclin inhibit the bacterial ribosome but not the structurally different eukaryotic ribosome, so they exhibit selective toxicity.[21] Antibiotics are used both in treating human disease and in intensive farming to promote animal growth. Both uses may be contributing to the rapid development of antibiotic resistance in bacterial populations.[22] Phage therapy can also be used to treat certain bacterial infections.[23]


Infections can be prevented by antiseptic measures such as sterilizing the skin prior to piercing it with the needle of a syringe and by proper care of indwelling catheters. Surgical and dental instruments are also sterilized to prevent infection by bacteria. Disinfectants such as bleach are used to kill bacteria or other pathogens on surfaces to prevent contamination and further reduce the risk of infection. Bacteria in food are killed by cooking to temperatures above 73 °C (163 °F).

List of genera and microscopy features

Many genera contain pathogenic bacterial species. They often possess characteristics that help to classify and organize them into groups. The following is a partial listing.

Genus Species Gram staining Shape Oxygen requirement Intra/Extracellular
Bacillus[24] Positive Rods Facultative anaerobic Extracellular
Bartonella[24] Negative Rods Aerobic Facultative intracellular
Bordetella[24] Negative Small coccobacilli Aerobic Extracellular
Borrelia[24] Negative, stains poorly spirochete Anaerobic Extracellular
Brucella[24] Negative coccobacilli Aerobic Intracellular
Campylobacter[24] Negative spiral rods[27]
coccoid in older cultures[27]
Microaerophilic[27] extracellular
Chlamydia and Chlamydophila[24] (not Gram-stained) Small, round, ovoid Facultative or strictly aerobic Obligate intracellular
Clostridium[24] Positive Large, blunt-ended rods Obligate anaerobic extracellular
Corynebacterium[24] Positive (unevenly) bacilli Mostly facultative anaerobic extracellular
Enterococcus[26][30] Positive Cocci Facultative Anaerobic extracellular
Escherichia[3][26][31] Negative Bacillus Facultative anaerobic extracellular or intracellular
Francisella[24] Negative coccobacillus strictly aerobic Facultative intracellular
Haemophilus Negative coccobacilli to long and slender filaments extracellular
Helicobacter Negative Spiral rod Microaerophile extracellular
Legionella[24] Negative, stains poorly cocobacilli aerobic facultative intracellular
Leptospira[26][34] Negative, stains poorly Spirochete Strictly aerobic extracellular
Listeria[24] Positive, darkly Slender, short rods Facultative Anaerobic facultative intracellular
Mycobacterium[24] (none) Long, slender rods aerobic intracellular
Mycoplasma[24] (none) 'fried egg' appearance, no cell wall Mostly facultative anaerobic; M. pneumoniae strictly aerobic extracellular
Neisseria[26][35] Negative Kidney bean-shaped aerobic Gonococcus: facultative intracellular
N. meningitidis
: extracellular
Pseudomonas[26][36] Negative rods Obligate aerobic extracellular
Rickettsia[24] Negative, stains poorly Small, rod-like coccobacillary Aerobic Obligate intracellular
Salmonella[24] Negative Bacillus shape Facultative anaerobica Facultative intracellular
Shigella[26][37] Negative rods Facultative anaerobic extracellular
Staphylococcus[3] Positive, darkly Round cocci Facultative anaerobic extracellular, facultative intracellular
Streptococcus[24] Positive ovoid to spherical Facultative anaerobic extracellular
Treponema[24] Negative, stains poorly Spirochete Aerobic extracellular
Ureaplasma[3] Stains poorly[38] indistinct, 'fried egg' appearance, no cell wall anaerobic extracellular
Vibrio[26][26][39] Negative Spiral with single polar flagellum Facultative anaerobic extracellular
Yersinia[26][40] Negative, bipolarly Small rods Facultative Anaerobe Intracellular

List of species and clinical characteristics

This is description of the more common genera and species presented with their clinical characteristics and treatments.

Species of human pathogenic bacteria
Species Transmission Diseases Treatment Prevention
Actinomyces israelii Oral flora[41] Actinomycosis:[41] painful abscesses in the mouth, lungs,[42][43] or gastrointestinal tract.[28] Prolonged penicillin G and drainage[41]
Bacillus anthracis

Contact with cattle, sheep, goats and horses[44]
Spores enter through inhalation or through abrasions[26]

Anthrax: pulmonary, gastrointestinal and/or cutaneous symptoms.[41]

In early infection:[45]


Anthrax vaccine[26]
Autoclaving of equipment[26]

Bacteroides fragilis Gut flora[41] Abscesses in gastrointestinal tract, pelvic cavity and lungs[41] metronidazole[41] Wound care[47]

Aspiration prevention[47]

Bordetella pertussis

Contact with respiratory droplets expelled by infected human hosts.[26]

Whooping cough[26][41]
Secondary bacterial pneumonia[26]

Macrolides[26] such as erythromycin,[26][41] before paroxysmal stage[41]

Pertussis vaccine,[26][41] such as in DPT vaccine[26][41]

Borrelia B. burgdorferi[26][41]

B. garinii[26]
B. afzelii[26]

Ixodes hard ticks
Reservoir in mice, other small mammals, and birds[48]

Lyme disease[49][50]

Doxycycline for adults, amoxicillin for children, ceftriaxone for neurological involvement[49]

Wearing clothing that limits skin exposure to ticks.[26]
Insect repellent.[26]
Avoid areas where ticks are found.[26]

B. recurrentis[51]

and others[note 1]

Pediculus humanus corporis body louse (B. recurrentis only) and Ornithodoros soft ticks[51] Relapsing fever Penicillin, tetracycline, doxycycline[52] Avoid areas where ticks are found[51]

Better access to washing facilities[51]
Reduce crowding[51]

Brucella B. abortus

B. canis
B. melitensis
B. suis

Direct contact with infected animal[26]
Oral, by ingestion of unpasteurized milk or milk products[26]

Brucellosis: mainly fever, muscular pain and night sweats

or gentamicin[26]

Campylobacter jejuni

Fecal-oral from animals (mammals and fowl)[26][41]
Uncooked meat (especially poultry)[26][41]
Contaminated water[26]

Treat symptoms[26]
Fluoroquinolone[41] such as ciprofloxacin[26] in severe cases[26]

Good hygiene[26]
Avoiding contaminated water[26]
Pasteurizing milk and milk products[26]
Cooking meat (especially poultry)[26]

Chlamydia C. pneumoniae

Respiratory droplets[26][41]

Atypical pneumonia[41]


C. trachomatis

vaginal sex[26]
oral sex[26]
anal sex[26] Vertical from mother to newborn(ICN)[26]
Direct or contaminated surfaces and flies (trachoma)[26]

Neonatal conjunctivitis[26][41]
Neonatal pneumonia[26][41]
Nongonococcal urethritis (NGU)[26][41]
Pelvic inflammatory disease[26][41]
Lymphogranuloma venereum (LGV)[26][41]

(adults)[41] Doxycycline[26][41]
(infants and pregnant women)[41]

Erythromycin or silver nitrate in newborn's eyes[26]
Safe sex[26]

Chlamydophila psittaci Inhalation of dust with secretions or feces from birds (e.g. parrots) Psittacosis, mainly atypical pneumonia


Clostridium C. botulinum Spores from soil,[26][41] persevere in canned food, smoked fish and honey[41]

Botulism: Mainly muscle weakness and paralysis[41]

Hyperbaric oxygen[41]
Mechanical ventilation[41]

Proper food preservation techniques

C. difficile

Gut flora,[26][41] overgrowing when other flora is depleted[26]

Pseudomembranous colitis[26][41]

Discontinuing responsible antibiotic[26][41]
Vancomycin or metronidazole if severe[26][41]

Fecal bacteriotherapy
C. perfringens

Spores in soil[26][41]
Vaginal flora and gut flora[26]

Anaerobic cellulitis[26][41]
Gas gangrene[26][41] Acute food poisoning[26][41]

Gas gangrene:

Debridement or amputation[26][41]
Hyperbaric medicine[26][41]
High doses of doxycycline[26] or penicillin G[26][41] and clindamycin[41]
Food poisoning: Supportive care is sufficient[26]

Appropriate food handling[26]
C. tetani

Spores in soil, skin penetration through wounds[26][41]

Tetanus: muscle spasms[53]

Tetanus immune globulin[26][41] Sedatives[26]
Muscle relaxants[26]
Mechanical ventilation[26][41]
Penicillin or metronidazole[41]

Tetanus vaccine (such as in the DPT vaccine)[26]

Corynebacterium diphtheriae

respiratory droplets
part of human flora

Diphtheria: Fever, sore throat and neck swelling, potentially narrowing airways.[54]

Horse serum antitoxin

DPT vaccine

Ehrlichia E. canis[41]

E. chaffeensis[41]

Dog tick[41] Ehrlichiosis:[41] headache, muscle aches, and fatigue
Enterococcus E. faecalis

E. faecium

Part of gut flora,[41] opportunistic or entering through GI tract or urinary system wounds[26]

Bacterial endocarditis,[41] biliary tract infections,[41] urinary tract infections[41]

Ampicillin (combined with aminoglycoside in endocarditis)[41] Vancomycin[26]

No vaccine Hand washing and other nosocomial prevention

Escherichia E. coli (generally) UTI:[26]

(resistance-tests are required first)



  • Antibiotics above shorten duration
  • Electrolyte and fluid replacement
(no vaccine or preventive drug)[26]
  • Cooking ground beef and pasteurizing milk against O157:H7[26]
  • Hand washing and disinfection[26]
Enterotoxigenic E. coli (ETEC)
Enteropathogenic E. coli
  • Diarrhea in infants[26]
Enteroinvasive E.coli (EIEC)
Enterohemorrhagic (EHEC), including E. coli O157:H7
  • Reservoir in cattle[26]
Francisella tularensis
  • vector-borne by arthropods[26]
  • Infected wild or domestic animals, birds or house pets[26]
Tularemia: Fever, ulceration at entry site and/or lymphadenopathy.[56] Can cause severe pneumonia.[56]
  • Avoiding insect vectors[26]
  • Precautions when handling wild animals or animal products[26]
Haemophilus influenzae
  • Droplet contact[26]
  • Human flora of e.g. upper respiratory tract[26]

(resistance-tests are required first)

Helicobacter pylori
  • Colonizing stomach[26]
  • Unclear person-to-person transmission[26]
(No vaccine or preventive drug)[26]
Klebsiella pneumoniae
Legionella pneumophila
  • Droplet contact, from e.g. cooling towers,[26][41] humidifiers,[26] air conditioners[26][41] and water distribution systems[26]
(no vaccine or preventive drug)[26]

Heating water[26]

Leptospira species
  • Food and water contaminated by urine from infected wild or domestic animals. Leptospira survives for weeks in fresh water and moist soil.[26]
Vaccine not widely used[26]

Prevention of exposure[26]

Listeria monocytogenes
(no vaccine)[26]
  • Proper food preparation and handling[26]
Mycobacterium M. leprae
  • Prolonged human-human contact, e.g. through exudates from skin lesions to abrasion of other person[26]
Tuberculoid form:

Lepromatous form:

M. tuberculosis

(difficult, see Tuberculosis treatment for more details)[26]

Standard "short" course:[26]

Mycoplasma pneumoniae
Neisseria N. gonorrhoeae
Uncomplicated gonorrhea:[26]

Ophthalmia neonatorum:

(No vaccine)[26]
N. meningitidis
Pseudomonas aeruginosa Opportunistic;[41] Infects damaged tissues or people with immunodeficiency.[26] Pseudomonas infection:[26] (no vaccine)[26]
Nocardia asteroides In soil[41] Nocardiosis:[41] Pneumonia, endocarditis, keratitis, neurological or lymphocutaneous infection TMP/SMX[41]
Rickettsia rickettsii (no preventive drug or approved vaccine)[26]
Salmonella S typhi
Other Salmonella species

e.g. S. typhimurium[26]

  • Fecal-oral[26]
  • Food contaminated by fowl[26] (e.g. uncooked eggs)[41] or turtles[41]
(No vaccine or preventive drug)[26]
  • Proper sewage disposal[26]
  • Food preparation[26]
  • Good personal hygiene[26]
Shigella S. sonnei[26]

S. dysenteriae[41]

  • Protection of water and food supplies[26]
  • Vaccines are in trial stage[64]
Staphylococcus aureus Coagulase-positive staphylococcal infections: (no vaccine or preventive drug)
  • Barrier precautions, washing hands and fomite disinfection in hospitals
epidermidis Human flora in skin,[26][41] anterior nares[26] and mucous membranes[41] None[26]
saprophyticus Part of normal vaginal flora[26] None[26]
Streptococcus agalactiae Human flora in vagina,[26][41] urethral mucous membranes,[26] rectum[26] None[26]
  • 23-serotype vaccine for adults (PPV)[26][41]
  • Heptavalent conjugated vaccine for children (PCV)[26]
pyogenes No vaccine[26]
  • Rapid antibiotic treatment helps prevent rheumatic fever[26]
viridans Oral flora,[41] penetration through abrasions Penicillin G[41]
Treponema pallidum subspecies pallidum
  • Penicillin offered to recent sexual partners[68]
  • Antibiotics to pregnant women if risk of transmitting to child[26]
  • No vaccine available[26]
  • Safe sex[26]
Vibrio cholerae
Yersinia pestis Plague:

Genetic transformation

Of the 59 species listed in the table with their clinical characteristics, 11 species (or 19%) are known to be capable of natural genetic transformation.[74] Natural transformation is a bacterial adaptation for transferring DNA from one cell to another. This process includes the uptake of exogenous DNA from a donor cell by a recipient cell and its incorporation into the recipient cell’s genome by recombination. Transformation appears to be an adaptation for repairing damage in the recipient cell’s DNA. Among pathogenic bacteria, transformation capability likely serves as an adaptation that facilitates survival and infectivity.[74] The pathogenic bacteria able to carry out natural genetic transformation (of those listed in the table) are Campylobacter jejuni, Enterococcus faecalis, Haemophilus influenzae, Helicobacter pylori, Klebsiella pneumoniae, Legionella pneumophila, Neisseria gonorrhoeae, Neisseria meningitidis, Staphylococcus aureus, Streptococcus pneumoniae and Vibrio cholerae.

See also


  1. Relapsing fever can also be caused by the following Borrelia species: B. crocidurae, B. duttonii, B. hermsii, B. hispanica, B. miyamotoi, B. persica, B. turicatae and B. venezuelensis.
    - Barbour, Alan G. (2017). "Relapsing Fever". In Kasper, Dennis L.; Fauci, Anthony S. (eds.). Harrison's Infectious Diseases (3rd ed.). New York: McGraw Hill Education. pp. 678–687. ISBN 978-1-259-83597-1.


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