AskDefine | Define anthrax

Dictionary Definition



1 a highly infectious animal disease (especially cattle and sheep); it can be transmitted to people [syn: splenic fever]
2 a disease of humans that is not communicable; caused by infection with Bacillus anthracis followed by septicemia
3 a species of Bacillus that causes anthrax in humans and in animals (cattle and swine and sheep and sheep and rabbits and mice and guinea pigs); can be used a bioweapon [syn: Bacillus anthracis] [also: anthraces (pl)]

User Contributed Dictionary



From etyl grc ἄνθραξ.



  1. An acute infectious bacterial disease of herbivores, especially sheep and cattle. It can occur in humans through contact with infected animals, tissue from infected animals, or high concentrations of anthrax spores, but is not usually spread between humans. Symptoms include lesions on the skin or in the lungs, and is often fatal.




Extensive Definition

Anthrax is an acute disease in humans and animals caused by the bacterium Bacillus anthracis which is highly lethal in some forms. There are effective vaccines against anthrax, and some forms of the disease respond well to antibiotic treatment.
The anthrax bacillum is one of only a few that can form long-lived spores: in a hostile environment, caused perhaps by the death of an infected host or extremes of temperature, the bacteria become inactive dormant spores which can remain viable for many decades and perhaps centuries. Spores are found on all continents except Antarctica. When spores are inhaled, ingested, or come into contact with a skin lesion on a host they reactivate and multiply very rapidly.
Anthrax most commonly infects wild and domesticated herbivorous mammals which ingest or inhale the spores while eating grass or browse. Ingestion is assumed to be the most common route by which herbivores contract anthrax, but this is as yet unproven. Anthrax can also infect humans when they are exposed to blood and other tissues from infected animals (via inhalation or direct inoculation through broken skin), eat tissue from infected animals, or are exposed to a high density of anthrax spores from an animal's fur, hide, or wool.
Anthrax spores can be grown in vitro and used as a biological weapon. Anthrax does not spread directly from one infected animal or person to another, but spores can be transported by clothing, shoes etc.; and the body of a mammal that died of anthrax can be a very dangerous source of anthrax spores.
The name anthrax comes from anthrakitis, the Greek word for anthracite (coal), in reference to the black skin lesions victims develop in a cutaneous skin infection.


Anthrax is one of the oldest recorded diseases of grazing animals such as sheep and cattle and is believed to be the Sixth Plague mentioned in the Book of Exodus in the Bible. Anthrax is also mentioned by Greek and Roman authors such as Homer (in The Iliad), Virgil (Georgics), and Hippocrates. Anthrax can also infect humans, usually as the result of coming into contact with infected animal hides, fur, wool ("Woolsorter's disease"), leather or contaminated soil. Anthrax ("siberian ulcer" ) is now fairly rare in humans, although it still regularly occurs in ruminants, such as cattle, sheep, goats, camels, wild buffalo, and antelopes, in hind-gut fermenters such as zebras and rhinos, and in other wildlife such as elephants in certain endemic areas of the world.
Bacillus anthracis bacteria spores are soil-borne and because of their long lifetime, they are still present globally and at animal burial sites of anthrax-killed animals for many decades; spores have been known to have reinfected animals over 70 years after burial sites of anthrax-infected animals were disturbed.
Until the twentieth century anthrax infections killed many thousands of animals and thousands of people each year in Europe, Asia and North America. French scientist Louis Pasteur developed the first effective vaccine for anthrax in 1881. Thanks to over a century of animal vaccination programs, sterilization of raw animal waste materials and anthrax eradication programs in North America, Australia, New Zealand, Russia, Europe and parts of New Mexico and Asia, anthrax infection is now relatively rare in domestic animals with normally only a few dozen cases reported every year. Anthrax is even rarer in dogs and cats: there had only ever been one documented case in dogs in the USA by 2001, although the disease affects livestock. Anthrax typically does not cause disease in carnivores and scavengers, even when these animals consume anthrax-infected carcasses. Anthrax outbreaks do occur in some wild animal populations with some regularity. The disease is more common in developing countries without widespread veterinary or human public health programs.
There are 89 known strains of anthrax, the most widely recognized being the virulent Ames strain used in the 2001 anthrax attacks in the United States. The Ames strain is extremely dangerous, though not quite as virulent as the Vollum strain which was successfully developed as a biological weapon during the Second World War, but never used. The Vollum (also incorrectly referred to as Vellum) strain was isolated in 1935 from a cow in Oxfordshire, UK. This is the same strain that was used during the Gruinard bioweapons trials. A variation of Vollum known as "Vollum 1B" was used during the 1960s in the US and UK bioweapon programs. Vollum 1B was isolated from William A. Boyles, a 46-year-old USAMRIID scientist who died in 1951 after being accidentally infected with the Vollum strain. The Sterne strain, named after a South African researcher, is an attenuated strain used as a vaccine.

Description of the bacterium

Bacillus anthracis is a rod-shaped Gram-positive bacterium, about 1 by 9 micrometers in size. It was shown to cause disease by Robert Koch in 1877. The bacterium normally rests in endospore form in the soil, and can survive for up to decades in this state. Herbivores are often infected whilst grazing or browsing, especially when eating rough, irritant or spiky vegetation: the vegetation has been hypothesized to cause wounds within the gastrointestinal tract permitting entry of the bacterial endo-spores into the tissues, though this has not been proven. Once ingested or placed in an open cut, the bacterium begins multiplying inside the animal or human and typically kills the host within a few days or weeks. The endo-spores germinate at the site of entry into the tissues and then spread via the circulation to the lymphatics, where the bacteria multiply. It is the production of two powerful exo-toxins (edema toxin and lethal toxin) by the bacteria that causes death. Veterinarians can often tell a possible anthrax-induced death by its sudden occurrence, and by the dark, non-clotting blood that oozes from the body orifices. Most anthrax bacteria inside the body after death are out-competed and destroyed by anaerobic bacteria within minutes to hours post-mortem. However, anthrax vegetative bacteria that escape the body via oozing blood or through the opening of the carcass may form hardy spores. One spore forms per one vegetative bacterium. The triggers for spore formation are not yet known, though oxygen tension and lack of nutrients may play roles. Once formed, these spores are very hard to eradicate.
The infection of herbivores (and occasionally humans) via the inhalational route normally proceeds as follows: once the spores are inhaled, they are transported through the air passages into the tiny air sacs (alveoli) in the lungs. The spores are then picked up by scavenger cells (macrophages) in the lungs and are transported through small vessels (lymphatics) to the glands (lymph nodes) in the central chest cavity (mediastinum). Damage caused by the anthrax spores and bacilli to the central chest cavity can cause chest pain and difficulty breathing. Once in the lymph glands, the spores germinate into active bacilli which multiply and eventually burst the macrophages, releasing many more bacilli into the bloodstream to be transferred to the entire body. Once in the blood stream these bacilli release three substances: lethal factor, oedema factor and protective antigen. Protective antigen combines with these other two factors to form lethal toxin and oedema toxin, respectively. These toxins are the primary agents of tissue destruction, bleeding, and death of the host. If antibiotics are administered too late, even if the antibiotics eradicate the bacteria, some hosts will still die. This is because the toxins produced by the bacilli remain in their system at lethal dose levels.
In order to enter the cells, the edema and lethal factors use another protein produced by B. anthracis, protective antigen. Oedema factor inactivates neutrophils (a type of phagocytic cell) so that they cannot phagocytose bacteria. Historically, it was believed that lethal factor caused macrophages to make TNF-alpha and interleukin 1, beta (IL1B), both normal components of the immune system used to induce an inflammatory reaction, ultimately leading to septic shock and death. However, recent evidence indicates that anthrax also targets endothelial cells (cells that lines serous cavities, lymph vessels, and blood vessels), causing vascular leakage of fluid and cells, and ultimately hypovolemic shock (low blood volume), and septic shock.
The virulence of a strain of anthrax is dependent on multiple factors, primarily the poly-D-glutamic acid capsule that protects the bacterium from phagocytosis by host neutrophils and its toxins, edema toxin and lethal toxin.


Occupational exposure to infected animals or their products (such as skin wool and meat) is the usual pathway of exposure for humans. Workers who are exposed to dead animals and animal products are at the highest risk, especially in countries where anthrax is more common. Anthrax in livestock grazing on open range where they mix with wild animals still occasionally occurs in the United States and elsewhere. Many workers who deal with wool and animal hides are routinely exposed to low levels of anthrax spores but most exposures are not sufficient to develop anthrax infections. Presumably, the body’s natural defenses can destroy low levels of exposure. These people usually contract cutaneous anthrax if they catch anything. Historically, the most dangerous form of inhalation anthrax was called Woolsorters' disease because it was an occupational hazard for people who sorted wool. Today this form of infection is extremely rare as there are almost no infected animals any more. The last fatal case of natural inhalation anthrax in the United States occurred in California in 1976, when a home weaver died after working with infected wool imported from Pakistan. The autopsy was done at UCLA hospital. To minimize the chance of spreading the disease, the deceased was transported to UCLA in a sealed plastic body bag within a sealed metal container.
In July 2006 an artist who worked with untreated animal skins became the first person in more than 30 years to die in the United Kingdom from anthrax.

Mode of infection

Anthrax can enter the human body through the intestines (ingestion), lungs (inhalation), or skin (cutaneous) and causes distinct clinical symptoms based on its site of entry. An infected human will generally be quarantined. However, anthrax does not usually spread from an infected human to a noninfected human. But if the disease is fatal the person’s body and its mass of anthrax bacilli becomes a potential source of infection to others and special precautions should be used to prevent further contamination. Inhalation anthrax, if left untreated until obvious symptoms occur, will usually result in death, as treatment will have started too late.
Anthrax can be contracted in laboratory accidents or by handling infected animals or their wool or hides. It has also been used in biological warfare agents and by terrorists to intentionally infect humans.

Pulmonary (pneumonic, respiratory, or inhalation) anthrax

Respiratory infection in humans initially presents with cold or flu-like symptoms for several days, followed by severe (and often fatal) respiratory collapse. This disease can rarely be treated, even if caught in early stages of infection; mortality is nearly 100%. A lethal infection is reported to result from inhalation of about 10,000–20,000 spores, though this dose varies amongst host species. Like all diseases there is probably a wide variation to susceptibility with evidence that some people may die from much lower exposures; there is little documented evidence to verify the exact or average number of spores needed for infection. Inhalation anthrax is also known as woolsorters' disease or as ragpickers' disease since these people often caught it. Other practices associated with exposure include the slicing up of animal horns for the manufacture of buttons, the handling of hair bristles used for the manufacturing of brushes, and the handling of animal skins. Whether these animal skins came from animals that died of the disease or from animals that had simply laid on ground that had spores on it is unknown. This mode of infection is used as a bioweapon.

Gastrointestinal (gastroenteric) anthrax

Gastrointestinal infection in humans is most often caused by eating anthrax-infected meat and is characterized by serious gastrointestinal difficulty, vomiting of blood, severe diarrhea, acute inflammation of the intestinal tract, and loss of appetite. Some lesions have been found in the intestines and in the mouth and throat. After the bacteria invades the bowel system, it spreads through the bloodstream throughout the body, making even more toxins on the way. Gastrointestinal infections can be treated but usually result in fatality rates of 25% to 60%, depending upon how soon treatment commences.

Cutaneous (skin) anthrax

Cutaneous (on the skin) anthrax infection in humans shows up as a boil-like skin lesion that eventually forms an ulcer with a black centre (eschar). The black eschar often shows up as a large, painless necrotic ulcer (beginning as an irritating and itchy skin lesion or blister that is dark and usually concentrated as a black dot, somewhat resembling bread mold) at the site of infection. Cutaneous infections generally form within the site of spore penetration within 2 to 5 days after exposure. Unlike bruises or most other lesions, cutaneous anthrax infections normally do not cause pain. Antibiotic-resistant strains of anthrax are known.
Aerial spores can be trapped by a simple HEPA or P100 filter. Inhalation of anthrax spores can be prevented with a full-face mask using appropriate filtration. Unbroken skin can be decontaminated by washing with simple soap and water. These procedures do not actually kill the spores, which are very hardy and can only be destroyed by extensive treatment. Filters, clothes, etc. exposed to possible anthrax-contaminated environments should be treated with chemicals or destroyed by fire to minimize the possibility of spreading the contamination.
In recent years there have been many attempts to develop new drugs against anthrax, but existing drugs are effective if treatment is started soon enough.
Early detection of sources of anthrax infection can allow preventative measures to be taken. In response to the anthrax attacks of October, 2001 the United States Postal Service (USPS) installed BioDetection Systems (BDS)in their large scale mail cancellation facilities. BDS response plans were formulated by the USPS in conjunction with local responders including fire, police, hospitals and public health. Employees of these facilities have been educated about anthrax, response actions and prophylactic medication. Because of the time delay inherent in getting final verification that anthrax has been used, prophylactic antibiotic treatment of possibly exposed personnel must be started as soon as possible.
The most effective form of prevention is vaccination against infection but this must be done well in advance of exposure to the bacillus, and does not protect indefinitely.
Components of tea, such as polyphenols, have the ability to inhibit the activity of bacillus anthracis and its toxin considerably. However, the addition of milk to the tea completely inhibits its antibacterial activity against anthrax Activity against the anthrax bacillum in the laboratory does not prove that tea is effective against spores, or that drinking tea affects the course of an infection.

Anthrax vaccines

An FDA-licensed vaccine, produced from one non-virulent strain of the anthrax bacterium, is manufactured by BioPort Corporation, subsidiary of Emergent BioSolutions. The trade name is BioThrax, although it is commonly called Anthrax Vaccine Adsorbed (AVA). It is administered in a six-dose primary series at 0,2,4 weeks and 6,12,18 months; annual booster injections are required thereafter to maintain immunity. The injections are typically very painful, and may leave the area of injection with swelling; this area may be painful for several days.
Unlike the West, the Soviets developed and used a live spore anthrax vaccine, known as the STI vaccine, produced in Tbilisi, Georgia. Its serious side effects restrict use to healthy adults.

Site cleanup

Anthrax spores can survive for long periods of time in the environment after release. Methods for cleaning anthrax-contaminated sites commonly use oxidizing agents such as peroxides, ethylene oxide, Sandia Foam, chlorine dioxide (used in Hart Senate office building), and liquid bleach products containing sodium hypochlorite. These agents slowly destroy bacterial spores. A bleach solution for treating hard surfaces has been approved by the EPA It can be prepared by mixing one part bleach (5.25%-6.00%) to one part white vinegar to eight parts water. Bleach and vinegar must not be combined together directly, as doing so could produce chlorine gas. Rather some water must first be added to the bleach (e.g., two cups water to one cup of bleach), then vinegar (e.g., one cup), and then the rest of the water (e.g., six cups). The pH of the solution should be tested with a paper test strip; and treated surfaces must remain in contact with the bleach solution for 60 minutes (repeated applications will be necessary to keep the surfaces wet).
Chlorine dioxide has emerged as the preferred biocide against anthrax-contaminated sites, having been employed in the treatment of numerous government buildings over the past decade. Its chief drawback is the need for in situ processes to have the reactant on demand.
To speed the process, trace amounts of a non-toxic catalyst composed of iron and tetro-amido macrocyclic ligands are combined with sodium carbonate and bicarbonate and converted into a spray. The spray formula is applied to an infested area and is followed by another spray containing tertiary-butyl hydroperoxide.
Using the catalyst method, a complete destruction of all anthrax spores takes 30 minutes. A standard catalyst-free spray destroys fewer than half the spores in the same amount of time. They can be heated, exposed to the harshest chemicals, and they do not easily die.
Cleanups at a Senate office building, several contaminated postal facilities and other U.S. government and private office buildings showed that decontamination is possible, but it is time-consuming and costly. Clearing the Senate office building of anthrax spores cost $27 million, according to the Government Accountability Office. Cleaning the Brentwood postal facility outside Washington cost $130 million and took 26 months. Since then newer and less costly methods have been developed.,
Clean up of anthrax-contaminated areas on ranches and in the wild is much more problematic. Carcasses may be burned, though it often takes up to three days to burn a large carcass and this is not feasible in areas with little wood. Carcasses may be buried, though the burying of large animals deeply enough to prevent resurfacing of spores requires much manpower and expensive tools. Carcasses have been soaked in formaldehyde to kill spores, though this has obvious environmental contamination issues. Block burning of vegetation in large areas enclosing an anthrax outbreak has been tried; this, while environmentally destructive, causes healthy animals to move away from an area with carcasses in search of fresh graze and browse. Some wildlife workers have experimented with covering fresh anthrax carcasses with shadecloth and heavy objects. This prevents some scavengers from opening the carcasses, thus allowing the putrefactive bacteria within the carcass to kill the vegetative B. anthracis cells and preventing sporulation. This method also has drawbacks, as scavengers such as hyenas are capable of infiltrating almost any exclosure.



Robert Koch, a German physician and scientist, first identified the bacteria which caused the anthrax disease in 1875. His pioneering work in the late nineteenth century was one of the first demonstrations that diseases could be caused by microbes. In a groundbreaking series of experiments he uncovered the life cycle and means of transmission of anthrax. His experiments not only helped create an understanding of anthrax, but also helped elucidate the role of microbes in causing illness at a time when debates were still held over spontaneous generation versus cell theory. Koch went on to study the mechanisms of other diseases and was awarded the 1905 Nobel Prize in Physiology or Medicine for his discovery of the bacteria causing tuberculosis. Koch is today recognized as one of history's most important biologists and a founder of modern bacteriology.

First vaccination

In May 1881 Louis Pasteur performed a public experiment to demonstrate his concept of vaccination. He prepared two groups of 25 sheep, one goat and several cows. The animals of one group were injected with an anti-anthrax vaccine prepared by Pasteur twice, at an interval of 15 days; the control group was left unvaccinated. Thirty days after the first injection both groups were injected with a culture of live anthrax bacteria. All the animals in the non-vaccinated group died, while all of the animals in the vaccinated group survived.
After mastering his method of vaccination Pasteur applied the concept to rabies. He went on to develop vaccines against small pox, cholera, and swine erysipelas.
The human vaccine for anthrax became available in 1954. This was a cell-free vaccine instead of the live-cell Pasteur-style vaccine used for veterinary purposes. An improved cell-free vaccine became available in 1970.

Biological warfare

Anthrax spores can and have been used as a biological warfare weapon. There is a long history of practical bioweapons research in this area. For example, in 1942 British bioweapons trials severely contaminated Gruinard Island in Scotland with anthrax spores of the Vollum-14578 strain, making it lethally dangerous to all mammals including humans, until it was decontaminated by 1990. The Gruinard trials involved testing the effectiveness of a submunition of an "N-bomb"—a biological weapon. Additionally, five million "cattle cakes" impregnated with anthrax were prepared and stored at Porton Down in 'Operation Vegetarian'—an anti-livestock weapon intended for attacks on Germany by the Royal Air Force The infected cattle cakes were to be dropped on Germany in 1944. However neither the cakes nor the bomb were used; the cattle cakes were incinerated in late 1945.
More recently the Rhodesian government used anthrax against cattle and humans in the period 1978–1979 during its war with black nationalists.
American military and British Army personnel are routinely vaccinated against anthrax prior to active service in places where biological attacks are considered a threat. The anthrax vaccine, produced by BioPort Corporation, contains non-living bacteria, and is approximately 93% effective in preventing infection.
Weaponized stocks of anthrax in the US were destroyed in 1971–72 after President Nixon ordered the dismantling of US biowarfare programs in 1969 and the destruction of all existing stockpiles of bioweapons Research is known to continue in the United States on ways to counteract bioweapons attacks.

Soviet accident: April 2, 1979

Despite signing the 1972 agreement to end bioweapon production the government of the Soviet Union had an active bioweapons program that included the production of hundreds of tons of weapons-grade anthrax after this period. On April 2, 1979 some of the over one million people living in Sverdlovsk (now called Ekaterinburg, Russia), about 850 miles east of Moscow, were exposed to an accidental release of anthrax from a biological weapons complex located near there. At least 94 people were infected, of whom at least 68 died. One victim died four days after the release, ten over an eight-day period at the peak of the deaths, and the last six weeks later. Extensive cleanup, vaccinations and medical interventions managed to save about 30 of the victims. Extensive cover-ups and destruction of records by the KGB continued from 1979 until Russian President Boris Yeltsin admitted this anthrax accident in 1992. Jeanne Guillemin reported in 1999 that a combined Russian and United States team investigated the accident in 1992,
Nearly all of the night shift workers of a ceramics plant directly across the street from the biological facility (compound 19) became infected, and most died. Since most were men, there were suspicions by Western governments that the Soviet Union had developed a sex-specific weapon (Alibek, 1999). The government blamed the outbreak on the consumption of anthrax-tainted meat and ordered the confiscation of all uninspected meat that entered the city. They also ordered that all stray dogs be shot and that people not have contact with sick animals. There was also a voluntary evacuation and anthrax vaccination program established for people from 18–55 (Meselson et al., 1994).
To support the cover-up story Soviet medical and legal journals published articles about an outbreak in livestock that caused GI anthrax in people who consumed infected meat, and cutaneous anthrax in people who came into contact with the animals. All medical and public health records were confiscated by the KGB (Meselson et al., 1994). In addition to the medical problems that the outbreak caused, it also prompted Western countries to be (justifiably) more suspicious of a covert Soviet Bioweapons program and to increase their surveillance of suspected sites. In 1986 the US government was allowed to investigate the incident, and concluded that the exposure was from aerosol anthrax from a military weapons facility (Sternbach, 2002). In 1992, President Yeltsin admitted that he was "absolutely certain" that "rumors" about the Soviet Union violating the 1972 Bioweapons Treaty were true. The Soviet Union, like the US and UK, had agreed to submit information to the UN about their bioweapons programs but omitted known facilities and never acknowledged their weapons program (Alibek, 1999).

Anthrax bioterrorism

Theoretically anthrax spores can be cultivated with minimal special equipment and a first-year collegiate microbiological education, but in practice the procedure is difficult and dangerous. To make large amounts of an aerosol form of anthrax suitable for biological warfare extensive practical knowledge, training and highly advanced equipment are required.
Concentrated anthrax spores were used for bioterrorism in the 2001 anthrax attacks in the United States, delivered by mailing postal letters containing the spores. Only a few grams of material were used in these attacks and it is unknown if this material was produced by a single individual or by a state sponsored bioweapons program. These events also spawned many anthrax hoaxes.

Decontaminating mail

In response to the postal anthrax attacks and hoaxes the US Postal Service sterilized some mail using a process of gamma irradiation and treatment with a proprietary enzyme formula supplied by Sipco Industries Ltd.
A scientific experiment performed by a high school student, later published in The Journal of Medical Toxicology, suggested that a domestic electric iron at its hottest setting (at least ) used for at least 5 minutes should destroy all anthrax spores in a common postal envelope.

See also


  • Alibek, K. Biohazard. New York, New York: Dell Publishing, 1999.
  • Chanda, A., S. Ketan, and C.P. Horwitz. 2004. Fe-TAML catalysts: A safe way to decontaminate an anthrax simulant. Society of Environmental Journalists annual meeting. October 20–24. Pittsburgh.
  • Meselson, M. et al. (1994). "The Sverdlovsk Outbreak of 1979". Science 266(5188) 1202–1208
  • Sternbach, G. (2002). "The History of Anthrax". The Journal of Emergency Medicine 24(4) 463–467.
anthrax in Arabic: الجمرة الخبيثة
anthrax in Breton: Serk
anthrax in Bulgarian: Антракс
anthrax in Czech: Anthrax
anthrax in Danish: Miltbrand
anthrax in German: Milzbrand
anthrax in Spanish: Carbunco
anthrax in Esperanto: Antrakso
anthrax in Basque: Karbunko
anthrax in French: Charbon (maladie)
anthrax in Korean: 탄저병
anthrax in Croatian: Antraks (bolest)
anthrax in Indonesian: Antraks
anthrax in Icelandic: Miltisbrandur
anthrax in Italian: Antrace
anthrax in Hebrew: גחלת
anthrax in Hungarian: Lépfene
anthrax in Malay (macrolanguage): Penyakit Antraks
anthrax in Dutch: Miltvuur
anthrax in Japanese: 炭疽症
anthrax in Norwegian: Miltbrann
anthrax in Polish: Wąglik
anthrax in Portuguese: Carbúnculo
anthrax in Romanian: Antrax
anthrax in Russian: Сибирская язва
anthrax in Sicilian: Cravunchiu
anthrax in Simple English: Anthrax (disease)
anthrax in Slovak: Slezinová sneť
anthrax in Slovenian: Vranični prisad
anthrax in Finnish: Pernarutto
anthrax in Swedish: Mjältbrand
anthrax in Tamil: ஆந்த்ராக்ஸ்
anthrax in Vietnamese: Bệnh than
anthrax in Turkish: Şarbon
anthrax in Ukrainian: Сибірка
anthrax in Chinese: 炭疽病

Synonyms, Antonyms and Related Words

African lethargy, Asiatic cholera, Chagres fever, German measles, Haverhill fever, Minamata disease, Texas fever, acute articular rheumatism, ague, alkali disease, altitude sickness, amebiasis, amebic dysentery, anoxemia, anoxia, anoxic anoxia, aphthous fever, bacillary dysentery, bastard measles, bighead, black death, black fever, black lung, black quarter, blackleg, blackwater, blackwater fever, blind staggers, bloody flux, breakbone fever, broken wind, brucellosis, bubonic plague, cachectic fever, caisson disease, cattle plague, cerebral rheumatism, charbon, chicken pox, chilblain, cholera, cowpox, dandy fever, decompression sickness, deer fly fever, dengue, dengue fever, diphtheria, distemper, dumdum fever, dysentery, elephantiasis, encephalitis lethargica, enteric fever, erysipelas, famine fever, five-day fever, flu, foot-and-mouth disease, frambesia, frostbite, gapes, glanders, glandular fever, grippe, hansenosis, heaves, hepatitis, herpes, herpes simplex, herpes zoster, histoplasmosis, hog cholera, hoof-and-mouth disease, hookworm, hydrophobia, immersion foot, infantile paralysis, infectious mononucleosis, inflammatory rheumatism, influenza, itai, jail fever, jet lag, jungle rot, kala azar, kissing disease, lead poisoning, lepra, leprosy, leptospirosis, liver rot, loa loa, loaiasis, lockjaw, loco, loco disease, locoism, mad staggers, madness, malaria, malarial fever, malignant catarrh, malignant catarrhal fever, malignant pustule, mange, marsh fever, measles, megrims, meningitis, mercury poisoning, milzbrand, motion sickness, mumps, ornithosis, osteomyelitis, paratuberculosis, paratyphoid fever, parotitis, parrot fever, pertussis, pip, pneumoconiosis, pneumonia, polio, poliomyelitis, polyarthritis rheumatism, ponos, pseudotuberculosis, psittacosis, quarter evil, rabbit fever, rabies, radiation sickness, radionecrosis, rat-bite fever, red-out, relapsing fever, rheumatic fever, rickettsialpox, rinderpest, ringworm, rot, rubella, rubeola, scabies, scarlatina, scarlet fever, schistosomiasis, septic sore throat, sheep rot, shingles, sleeping sickness, sleepy sickness, smallpox, snail fever, splenic fever, spotted fever, staggers, strep throat, stringhalt, sunstroke, swamp fever, swine dysentery, tetanus, the bends, thrush, tinea, trench fever, trench foot, trench mouth, tuberculosis, tularemia, typhoid, typhoid fever, typhus, typhus fever, undulant fever, vaccinia, varicella, variola, venereal disease, viral dysentery, whooping cough, yaws, yellow fever, yellow jack, zona, zoster
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