64岁属什么| 飞机为什么怕小鸟| 天可以加什么偏旁| 就让我爱你把你捧在手心里是什么歌| 舞象之年是什么意思| 重孙是什么意思| 梦见金项链是什么意思| 邮箱是什么| 4月21日什么星座| 子息克乏是什么意思| 绒毛浆是什么| 什么是青光眼| 高尿酸血症是什么病| 大头虾是什么意思| ACS什么意思| 08年属什么生肖| 子宫脱垂吃什么药怎么恢复正常| 胃造影和胃镜有什么区别| 吃什么睡眠最快| 什么时间英文| 结肠ca是什么意思| 吃黄体酮有什么副作用| ca724是什么意思| 新生儿什么时候可以喝水| 卤门什么时候闭合| 老婆生日送什么鲜花| 高血压饮食上注意什么| 梦见红鞋子是什么意思| 逆商是什么| 尖锐湿疣什么症状| 有点拉肚子吃什么药| 胃下垂是什么症状| 南瓜不能和什么食物一起吃| 六合是什么意思| ipi是什么意思| 喝枸杞子泡水有什么好处和坏处| tct检查什么项目| 处女是什么意思| 什么是黄疸| 2222是什么意思| 医院的特需门诊是什么意思| 平均红细胞体积偏高说明什么| 馐什么意思| 喝什么茶清肺效果最好| 喉咙扁桃体发炎吃什么药| 天时地利人和是什么意思| 散光轴位是什么| 文化大革命什么时候| 青岛有什么山| 掉头发是什么原因引起的| 为什么医生都穿洞洞鞋| 局方是什么意思| 胃酸吃什么药效果最好| 1977年出生属什么生肖| 恙是什么意思| 做梦来月经了什么预兆| 人流需要准备什么东西| 什么血型的人招蚊子| 益母草什么时候喝最好| 72年属什么生肖属相| 吃什么降三高最快| 知道是什么意思| 会所是什么意思| nba打铁是什么意思| 识大体是什么意思| 夏季有什么花| 减脂喝什么茶最有效| 阑尾炎手术后吃什么好| 刀子嘴豆腐心什么意思| 阴道有灼热感是什么原因| 玻色因是什么| 拉肚子吃什么药最有效| 海清是什么意思| 羊水穿刺是查什么的| 排卵期什么时候开始| 全身痒但是身上什么都没有| 宫保鸡丁宫保是指什么| 陶弘景有什么之称| 落魄是什么意思| 琅琊榜是什么意思| 吃什么补钾最快最好| 咪咪头疼是什么原因| 性别是什么意思| 安乐死是什么意思| 血脂粘稠有什么症状| 教导是什么意思| 一个虫一个圣读什么| vivo是什么品牌手机| 咳血是什么原因| 产检挂什么科| 苏东坡属什么生肖| 否命题和命题的否定有什么区别| 什么是甘油| 片反过来念什么| 干咳是什么原因| 黄精什么功效| 什么是霉菌| 芒果什么人不适合吃| 拜土地公时要念什么好| 6月20号什么星座| 低血压高什么原因| 西装外套配什么裤子| 1958年是什么年| 膝盖痛吃什么| 类风湿关节炎吃什么药效果好| 葫芦藓是什么植物| 喉咙疼痛吃什么药| 椰子和椰青有什么区别| 肾结石吃什么药好| 居高临下是什么意思| 胸口隐隐作痛挂什么科| 乳腺癌三期是什么意思| 学信网上的报告编号是什么| 7月15日什么星座| 甲状腺是什么症状表现| 拉屎酸臭是什么原因| 77年什么命| 着凉了吃什么药| 晦气是什么意思| 房间里放什么阳气旺| 咳绿痰是什么原因| 脚疼是什么原因引起的| 排卵期在什么时候| 动手术后吃什么对伤口恢复比较快| 下午7点是什么时辰| 小儿消化不良吃什么药最好| 刹那芳华是什么意思| k金是什么| fpa是什么意思| 吃什么可以瘦肚子| 皮肤晒伤用什么药| 肚脐眼左边是什么部位| 18k金是什么| 紫色是什么颜色调出来的| 安宫牛黄丸有什么作用| 吃什么水果能降血压| 肿标五项查的是什么| 为什么晚上睡不着| 上什么环最好最安全伤害小| 脸上发红是什么原因| 痰湿体质吃什么食物好| 胃立康片适合什么病| kdj是什么意思| 尿遁什么意思| 清朝什么时候建立| 小肚子一直疼是什么原因| 参详意思是什么| 刺猬喜欢吃什么食物| 鹿晗什么时候回国的| 七月初七是什么生肖| 今天是什么月| 澳门买什么最便宜| 喉咙痛吃什么药效果最好| 刀子嘴豆腐心什么意思| 吃什么东西对肝脏好| 灌肠为什么能通输卵管| 肝浸润是什么意思| 月经期间不能吃什么水果| 高铁与动车的区别是什么| 尿痛吃什么药效果最好| 关节镜是什么| choker什么意思| 囹圄是什么意思| 宫颈细胞学检查是什么意思| 带刺的玫瑰是什么意思| 齁不住是什么意思| 眼睛大小不一样是什么原因| 气性坏疽是什么病| afp是什么传染病| 辗转什么意思| 什么人不能爬泰山| 什么是老年斑图片| 为什么近视不可逆| 状况是什么意思| 肚子下面是什么部位| 吃什么能养肝护肝| 女儿红属于什么酒| 异卵双胞胎是什么意思| 反目成仇是什么意思| 洋参片泡水喝有什么功效| 乙肝病毒表面抗体弱阳性什么意思| 电压不稳定是什么原因| 打嗝吃什么药| 7月7号是什么星座| 瓜婆娘四川话是什么意思| 肚子胀气吃什么通气| 什么是肋骨骨折| 为什么招蚊子咬| 宇宙的尽头是什么| 工程院院士是什么级别| 肤如凝脂是什么意思| 美女的阴暗是什么样的| 人参归脾丸适合什么人吃| 肾阴虚有什么症状表现| 潮喷是什么| 孙悟空最后成了什么佛| 朝代表什么生肖| 老鼠属于什么类动物| 县长什么级别| 44是什么意思| phr是什么词性| 接吻要注意什么| 安全期是什么| 淋巴细胞计数偏低是什么原因| 怀孕前三个月需要注意什么| 议员在中国相当于什么| 小孩包皮挂什么科| 抄经书有什么好处| 很长很长的什么填空| 桂皮是什么| arr是什么意思| 控制血糖吃什么食物| 睡觉总醒是什么原因| 长息肉是什么原因| 梦到狗什么意思| 白水晶五行属什么| 农历四月是什么月| 羡慕的什么| 什么的故事填空| 怎么知道自己什么血型| 颈椎病吃什么药| 出火是什么意思| 脸上长斑吃什么药调理| 小腿肚酸疼是什么原因| 子宫肌腺症是什么病| 早起胃疼是什么原因导致的| 乌梅是什么| 什么情况属于诈骗| 侄女叫我什么| 霍光和卫子夫什么关系| 同房出血是什么原因| 准生证是什么| 天丝是什么| 眼拙是什么意思| 面肌痉挛是什么原因引起的| lok是什么意思| 免冠彩照是什么意思| prp治疗是什么意思| 胃胀气是什么原因| 发晕是什么原因引起的| 农业户口和非农业户口有什么区别| PT医学上是什么意思| 不能生育的女人有什么特征| 十月十日是什么星座| 为什么会脑梗| 酸入肝是什么意思| 思钱想厚什么意思| 吃什么对喉咙好| 爱长闭口用什么护肤品| 人为什么会胖| 纣王叫什么名字| 心电图挂什么科| 聋哑人为什么不会说话| 心衰挂什么科| 超市是什么意思| 奶茶喝多了有什么危害| 结婚十周年是什么婚| 果肉属于什么组织| 蚊虫叮咬涂什么药| 大芒果是什么品种| 咳嗽喝什么汤好| 11月4号是什么星座| 嘴唇薄的男人面相代表什么意味| 身上带什么可以辟邪| 百度Jump to content

高分辨率 1Msps SAR 模数转换器隔离式解决方案

From Wikipedia, the free encyclopedia
(Redirected from Germ theory)
百度   需要注意的是,不能因大数据“杀熟”而杀死大数据,舆论要有理性态度,大数据本身更要有清醒态度——行业发展离不开舆论支持,损人最后必然损己。

Scanning electron microscope image of Vibrio cholerae, the bacterium that causes cholera

The germ theory of disease is the currently accepted scientific theory for many diseases. It states that microorganisms known as pathogens or "germs" can cause disease. These small organisms, which are too small to be seen without magnification, invade animals, plants, and even bacteria. Their growth and reproduction within their hosts can cause disease. "Germ" refers not just to bacteria but to any type of microorganism, such as protists or fungi, or other pathogens, including parasites, viruses, prions, or viroids.[1] Diseases caused by pathogens are called infectious diseases. Even when a pathogen is the principal cause of a disease, environmental and hereditary factors often influence the severity of the disease, and whether a potential host individual becomes infected when exposed to the pathogen. Pathogens are disease-causing agents that can pass from one individual to another, across multiple domains of life.

Basic forms of germ theory were proposed by Girolamo Fracastoro in 1546, and expanded upon by Marcus von Plenciz in 1762. However, such views were held in disdain in Europe, where Galen's miasma theory remained dominant among scientists and doctors.

By the early 19th century, the first vaccine, smallpox vaccination, was commonplace in Europe, though doctors were unaware of how it worked or how to extend the principle to other diseases. A transitional period began in the late 1850s with the work of Louis Pasteur. This work was later extended by Robert Koch in the 1880s. By the end of that decade, the miasma theory was struggling to compete with the germ theory of disease. Viruses were initially discovered in the 1890s. Eventually, a "golden era" of bacteriology ensued, during which the germ theory quickly led to the identification of the actual organisms that cause many diseases.[2]

Miasma theory

[edit]
A representation by Robert Seymour of the cholera epidemic depicts the spread of the disease in the form of poisonous air.

The miasma theory was the predominant theory of disease transmission before the germ theory took hold towards the end of the 19th century; it is no longer accepted as a correct explanation for disease by the scientific community. It held that diseases such as cholera, chlamydia infection, or the Black Death were caused by a miasma (μ?ασμα, Ancient Greek: "pollution"), a noxious form of "bad air" emanating from rotting organic matter.[3] Miasma was considered to be a poisonous vapor or mist filled with particles from decomposed matter (miasmata) that was identifiable by its foul smell. The theory posited that diseases were the product of environmental factors such as contaminated water, foul air, and poor hygienic conditions. Such infections, according to the theory, were not passed between individuals but would affect those within a locale that gave rise to such vapors.[4]

Development of germ theory

[edit]

Greece and Rome

[edit]

In Antiquity, the Greek historian Thucydides (c.?460c.?400 BC) was the first person to write, in his account of the plague of Athens, that diseases could spread from an infected person to others.[5][6]

One theory of the spread of contagious diseases that were not spread by direct contact was that they were spread by spore-like "seeds" (Latin: semina) that were present in and dispersible through the air. In his poem, De rerum natura (On the Nature of Things, c.?56 BC), the Roman poet Lucretius (c.?99 BCc.?55 BC) stated that the world contained various "seeds", some of which could sicken a person if they were inhaled or ingested.[7][8]

The Roman statesman Marcus Terentius Varro (116–27 BC) wrote, in his Rerum rusticarum libri III (Three Books on Agriculture, 36 BC): "Precautions must also be taken in the neighborhood of swamps... because there are bred certain minute creatures which cannot be seen by the eyes, which float in the air and enter the body through the mouth and nose and there cause serious diseases."[9]

The Greek physician Galen (AD 129 – c.?200/216) speculated in his On Initial Causes (c.?175 AD) that some patients might have "seeds of fever".[7]:?4? In his On the Different Types of Fever (c.?175 AD), Galen speculated that plagues were spread by "certain seeds of plague", which were present in the air.[7]:?6? And in his Epidemics (c.?176–178 AD), Galen explained that patients might relapse during recovery from fever because some "seed of the disease" lurked in their bodies, which would cause a recurrence of the disease if the patients did not follow a physician's therapeutic regimen.[7]:?7?

The Middle Ages

[edit]

A hybrid form of miasma and contagion theory was proposed by Persian physician Ibn Sina (known as Avicenna in Europe) in The Canon of Medicine (1025). He mentioned that people can transmit disease to others by breath, noted contagion with tuberculosis, and discussed the transmission of disease through water and dirt.[10]

During the early Middle Ages, Isidore of Seville (c.?560–636) mentioned "plague-bearing seeds" (pestifera semina) in his On the Nature of Things (c.?AD 613).[7]:?20? Later in 1345, Tommaso del Garbo (c.?1305–1370) of Bologna, Italy mentioned Galen's "seeds of plague" in his work Commentaria non-parum utilia in libros Galeni (Helpful commentaries on the books of Galen).[7]:?214?

The 16th century Reformer Martin Luther appears to have had some idea of the contagion theory, commenting, "I have survived three plagues and visited several people who had two plague spots which I touched. But it did not hurt me, thank God. Afterwards when I returned home, I took up Margaret," (born 1534), "who was then a baby, and put my unwashed hands on her face, because I had forgotten; otherwise I should not have done it, which would have been tempting God."[11] In 1546, Italian physician Girolamo Fracastoro published De Contagione et Contagiosis Morbis (On Contagion and Contagious Diseases), a set of three books covering the nature of contagious diseases, categorization of major pathogens, and theories on preventing and treating these conditions. Fracastoro blamed "seeds of disease" that propagate through direct contact with an infected host, indirect contact with fomites, or through particles in the air.[12]

The Early Modern Period

[edit]

In 1668, Italian physician Francesco Redi published experimental evidence rejecting spontaneous generation, the theory that living creatures arise from nonliving matter. He observed that maggots only arose from rotting meat that was uncovered. When meat was left in jars covered by gauze, the maggots would instead appear on the gauze's surface, later understood as rotting meat's smell passing through the mesh to attract flies that laid eggs.[13][14]

Microorganisms are said to have been first directly observed in the 1670s by Anton van Leeuwenhoek, an early pioneer in microbiology, considered "the Father of Microbiology". Leeuwenhoek is said to be the first to see and describe bacteria in 1674, yeast cells, the teeming life in a drop of water (such as algae), and the circulation of blood corpuscles in capillaries. The word "bacteria" didn't exist yet, so he called these microscopic living organisms "animalcules", meaning "little animals". Those "very little animalcules" he was able to isolate from different sources, such as rainwater, pond and well water, and the human mouth and intestine.

Yet German Jesuit priest and scholar Athanasius Kircher (or "Kirchner", as it is often spelled) may have observed such microorganisms prior to this. One of his books written in 1646 contains a chapter in Latin, which reads in translation: "Concerning the wonderful structure of things in nature, investigated by microscope...who would believe that vinegar and milk abound with an innumerable multitude of worms." Kircher defined the invisible organisms found in decaying bodies, meat, milk, and secretions as "worms." His studies with the microscope led him to the belief, which he was possibly the first to hold, that disease and putrefaction, or decay were caused by the presence of invisible living bodies, writing that "a number of things might be discovered in the blood of fever patients." When Rome was struck by the bubonic plague in 1656, Kircher investigated the blood of plague victims under the microscope. He noted the presence of "little worms" or "animalcules" in the blood and concluded that the disease was caused by microorganisms.

Kircher was the first to attribute infectious disease to a microscopic pathogen, inventing the germ theory of disease, which he outlined in his Scrutinium Physico-Medicum, published in Rome in 1658.[15] Kircher's conclusion that disease was caused by microorganisms was correct, although it is likely that what he saw under the microscope were in fact red or white blood cells and not the plague agent itself. Kircher also proposed hygienic measures to prevent the spread of disease, such as isolation, quarantine, burning clothes worn by the infected, and wearing facemasks to prevent the inhalation of germs. It was Kircher who first proposed that living beings enter and exist in the blood.

In the 18th century, more proposals were made, but struggled to catch on. In 1700, physician Nicolas Andry argued that microorganisms he called "worms" were responsible for smallpox and other diseases.[16] In 1720, Richard Bradley theorised that the plague and "all pestilential distempers" were caused by "poisonous insects", living creatures viewable only with the help of microscopes.[17]

In 1762, the Austrian physician Marcus Antonius von Plenciz (1705–1786) published a book titled Opera medico-physica. It outlined a theory of contagion stating that specific animalcules in the soil and the air were responsible for causing specific diseases. Von Plenciz noted the distinction between diseases which are both epidemic and contagious (like measles and dysentery), and diseases which are contagious but not epidemic (like rabies and leprosy).[18] The book cites Anton van Leeuwenhoek to show how ubiquitous such animalcules are and was unique for describing the presence of germs in ulcerating wounds. Ultimately, the theory espoused by von Plenciz was not accepted by the scientific community.

19th and 20th centuries

[edit]

Agostino Bassi, Italy

[edit]

During the early 19th century, driven by economic concerns over collapsing silk production, Italian entomologist Agostino Bassi researched a silkworm disease known as "muscardine" in French and "calcinaccio" or "mal del segno" in Italian, causing white fungal spots along the caterpillar. From 1835 to 1836, Bassi published his findings that fungal spores transmitted the disease between individuals. In recommending the rapid removal of diseased caterpillars and disinfection of their surfaces, Bassi outlined methods used in modern preventative healthcare.[19] Italian naturalist Giuseppe Gabriel Balsamo-Crivelli named the causative fungal species after Bassi, currently classified as Beauveria bassiana.[20]

Louis-Daniel Beauperthuy, France

[edit]

In 1838 French specialist in tropical medicine Louis-Daniel Beauperthuy pioneered using microscopy in relation to diseases and independently developed a theory that all infectious diseases were due to parasitic infection with "animalcules" (microorganisms). With the help of his friend M. Adele de Rosseville, he presented his theory in a formal presentation before the French Academy of Sciences in Paris. By 1853, he was convinced that malaria and yellow fever were spread by mosquitos. He even identified the particular group of mosquitos that transmit yellow fever as the "domestic species" of "striped-legged mosquito", which can be recognised as Aedes aegypti, the actual vector. He published his theory in 1854 in the Gaceta Oficial de Cumana ("Official Gazette of Cumana"). His reports were assessed by an official commission, which discarded his mosquito theory.[21]

Ignaz Semmelweis, Austria

[edit]

Ignaz Semmelweis, a Hungarian obstetrician working at the Vienna General Hospital (Allgemeines Krankenhaus) in 1847, noticed the dramatically high maternal mortality from puerperal fever following births assisted by doctors and medical students. However, those attended by midwives were relatively safe. Investigating further, Semmelweis made the connection between puerperal fever and examinations of delivering women by doctors, and further realized that these physicians had usually come directly from autopsies. Asserting that puerperal fever was a contagious disease and that matter from autopsies was implicated in its spread, Semmelweis made doctors wash their hands with chlorinated lime water before examining pregnant women. He then documented a sudden reduction in the mortality rate from 18% to 2.2% over a period of a year. Despite this evidence, he and his theories were rejected by most of the contemporary medical establishment.[22]

Gideon Mantell, UK

[edit]

Gideon Mantell, the Sussex doctor more famous for discovering dinosaur fossils, spent time with his microscope, and speculated in his Thoughts on Animalcules (1850) that perhaps "many of the most serious maladies which afflict humanity, are produced by peculiar states of invisible animalcular life".[23]

John Snow, UK

[edit]

British physician John Snow is credited as a founder of modern epidemiology for studying the 1854 Broad Street cholera outbreak.[24] Snow criticized the Italian anatomist Giovanni Maria Lancisi for his early 18th century writings that claimed swamp miasma spread malaria, rebutting that bad air from decomposing organisms was not present in all cases. In his 1849 pamphlet On the Mode of Communication of Cholera, Snow proposed that cholera spread through the fecal–oral route, replicating in human lower intestines.[25]

In the book's second edition, published in 1855, Snow theorized that cholera was caused by cells smaller than human epithelial cells, leading to Robert Koch's 1884 confirmation of the bacterial species Vibrio cholerae as the causative agent. In recognizing a biological origin, Snow recommended boiling and filtering water, setting the precedent for modern boil-water advisory directives.[25]

Through a statistical analysis tying cholera cases to specific water pumps associated with the Southwark and Vauxhall Waterworks Company, which supplied sewage-polluted water from the River Thames, Snow showed that areas supplied by this company experienced fourteen times as many deaths as residents using Lambeth Waterworks Company pumps that obtained water from the upriver, cleaner Seething Wells. While Snow received praise for convincing the Board of Guardians of St James's Parish to remove the handles of contaminated pumps, he noted that the outbreak's cases were already declining as scared residents fled the region.[25]

Louis Pasteur, France

[edit]
Louis Pasteur's spontaneous generation experiment illustrates that liquid nutrients are spoiled by particles in the air rather than the air itself. These results of these experiments supported the germ theory of disease.

During the mid-19th century, French microbiologist Louis Pasteur showed that treating the female genital tract with boric acid killed the microorganisms causing postpartum infections while avoiding damage to mucous membranes.[26]

Building on Redi's work, Pasteur disproved spontaneous generation by constructing swan neck flasks containing nutrient broth. Since the flask contents were only fermented when in direct contact with the external environment's air by removing the curved tubing, Pasteur demonstrated that bacteria must travel between sites of infection to colonize environments.[27]

Similar to Bassi, Pasteur extended his research on germ theory by studying pébrine, a disease that causes brown spots on silkworms.[20] While Swiss botanist Carl N?geli discovered the fungal species Nosema bombycis in 1857, Pasteur applied the findings to recommend improved ventilation and screening of silkworm eggs, an early form of disease surveillance.[27]

Robert Koch, Germany

[edit]

In 1884, German bacteriologist Robert Koch published four criteria for establishing causality between specific microorganisms and diseases, now known as Koch's postulates:[28]

  1. The microorganism must be found in abundance in all organisms with the disease, but should not be found in healthy organisms.
  2. The microorganism must be isolated from a diseased organism and grown in pure culture.
  3. The cultured microorganism should cause disease when introduced into a healthy organism.
  4. The microorganism must be re-isolated from the inoculated, diseased experimental host and identified as being identical to the original specific causative agent.

During his lifetime, Koch recognized that the postulates were not universally applicable, such as asymptomatic carriers of cholera violating the first postulate. For this same reason, the third postulate specifies "should", rather than "must", because not all host organisms exposed to an infectious agent will acquire the infection, potentially due to differences in prior exposure to the pathogen.[29][30] Limiting the second postulate, it was later discovered that viruses cannot be grown in pure cultures because they are obligate intracellular parasites, making it impossible to fulfill the second postulate.[31][32] Similarly, pathogenic misfolded proteins, known as prions, only spread by transmitting their structure to other proteins, rather than self-replicating.[33]

While Koch's postulates retain historical importance for emphasizing that correlation does not imply causation, many pathogens are accepted as causative agents of specific diseases without fulfilling all of the criteria.[34] In 1988, American microbiologist Stanley Falkow published a molecular version of Koch's postulates to establish correlation between microbial genes and virulence factors.[35]

Joseph Lister, UK

[edit]

After reading Pasteur's papers on bacterial fermentation, British surgeon Joseph Lister recognized that compound fractures, involving bones breaking through the skin, were more likely to become infected due to exposure to environmental microorganisms. He recognized that carbolic acid could be applied to the site of injury as an effective antiseptic.[36]

See also

[edit]

References

[edit]
  1. ^ "Definition of Germ in English from the Oxford dictionary". Oxford Dictionaries. Archived from the original on 6 April 2016. Retrieved 5 April 2016.
  2. ^ Susser, Mervyn; Stein, Zena (August 2009). "10: Germ Theory, Infection, and Bacteriology". Eras in Epidemiology: The Evolution of Ideas. Oxford University Press. pp. 107–122. doi:10.1093/acprof:oso/9780195300666.003.0010. ISBN 9780199863754.
  3. ^ Last JM, ed. (2007), "miasma theory", A Dictionary of Public Health, Westminster College, Pennsylvania: Oxford University Press, ISBN 9780195160901
  4. ^ Tsoucalas G, Spengos K, Panayiotakopoulos G, Papaioannou T, Karamanou M (15 February 2018). "Epilepsy, Theories and Treatment Inside Corpus Hippocraticum". Current Pharmaceutical Design. 23 (42): 6369–6372. doi:10.2174/1381612823666171024153144. PMID 29076418.
  5. ^ Singer, Charles and Dorothea (1917) "The scientific position of Girolamo Fracastoro [1478?–1553] with especial reference to the source, character and influence of his theory of infection," Annals of Medical History, 1 : 1–34; see p. 14. Archived 16 June 2020 at the Wayback Machine
  6. ^ Thucydides with Richard Crawley, trans., History of the Peloponnesian War (London, England: J.M. Dent & Sons, Ltd., 1910), Book III, § 51, pp. 131–32. From pp. 131–32: " … there was the awful spectacle of men dying like sheep, through having caught the infection in nursing each other. This caused the greatest mortality. On the one hand, if they were afraid to visit each other, they perished from neglect; indeed many houses were emptied of their inmates for want of a nurse: on the other, if they ventured to do so, death was the consequence."
  7. ^ a b c d e f Nutton V (January 1983). "The seeds of disease: an explanation of contagion and infection from the Greeks to the Renaissance". Medical History. 27 (1): 1–34. doi:10.1017/s0025727300042241. PMC 1139262. PMID 6339840.
  8. ^ Lucretius with Rev. John S. Watson, trans., On the Nature of Things (London, England: Henry G. Bohn, 1851), Book VI, lines 1093–1130, pp. 291–92; see especially p. 292. From p. 292: "This new malady and pest, therefore, either suddenly falls into the water, or penetrates into the very corn, or into other food of men and cattle. Or even, as may be the case, the infection remains suspended in the air itself; and when, as we breathe, we inhale the air mingled with it, we must necessarily absorb those seeds of disease into our body."
  9. ^ Varro MT, Storr-Best L (1912). "XII". Varro on Farming. Vol. Book 1. London, England: G. Bell and Sons, Ltd. p. 9.
  10. ^ Byrne JP (2012). Encyclopedia of the Black Death. ABC-CLIO. p. 29. ISBN 9781598842531.
  11. ^ Smith, Preserved, ed. (1979). Table Talk Conversations with Martin Luther. New Canaan, CT: Keats Publishing Inc. p. 212.
  12. ^ Morgan, Ewan (22 January 2021). "The Physician Who Presaged the Germ Theory of Disease Nearly 500 Years Ago". Scientific American. Archived from the original on 18 January 2023. Retrieved 18 January 2023.
  13. ^ Redi, Francesco (1668). Esperienze Intorno alla Generazione degl' Insetti [Experiments on the Generation of Insects] (in Italian). Florence, Italy. doi:10.5962/bhl.title.149072. LCCN 18018365. OCLC 9363778. Archived (PDF) from the original on 1 July 2023. Retrieved 18 January 2023.
  14. ^ Parke, Emily C. (1 March 2014). "Flies from meat and wasps from trees: Reevaluating Francesco Redi's spontaneous generation experiments". Studies in History and Philosophy of Science Part C: Studies in History and Philosophy of Biological and Biomedical Sciences. 45: 34–42. doi:10.1016/j.shpsc.2013.12.005. ISSN 1369-8486. PMID 24509515. Archived from the original on 14 April 2019. Retrieved 18 January 2023.
  15. ^ "The Life and Work of Athanaseus Kircher, S.J." The Museum of Jurassic Technology. Archived from the original on 17 April 2016. Retrieved 18 April 2016.
  16. ^ "The History of the Germ Theory". The British Medical Journal. 1 (1415): 312. 11 February 1888.
  17. ^ Santer M (2009). "Richard Bradley: a unified, living agent theory of the cause of infectious diseases of plants, animals, and humans in the first decades of the 18th century". Perspectives in Biology and Medicine. 52 (4): 566–78. doi:10.1353/pbm.0.0124. PMID 19855125. S2CID 22544615.
  18. ^ Winslow CE (1967). Conquest of Epidemic Disease: A Chapter in the History of Ideas. Hafner Publishing Co Ltd. ISBN 978-0028548807.
  19. ^ Bassi, Agostino (1836). Del Mal del Segno, Calcinaccio o Moscardino : Malattia che Affligge i Bachi da Seta [Bad Sign, Rubble, or Muscardine: Disease that Afflicts Silkworms] (in Italian). Lodi, Lombardy. doi:10.5962/bhl.title.152962. Archived (PDF) from the original on 1 July 2023. Retrieved 19 January 2023.
  20. ^ a b Lovett, Brian (6 December 2019). "Sick or Silk: How Silkworms Spun the Germ Theory of Disease". American Society for Microbiology. Archived from the original on 19 January 2023. Retrieved 19 January 2023.
  21. ^ Agramonte, A (2001). "The inside history of a great medical discovery. 1915". Military Medicine. 166 (9 Suppl): 68–78. doi:10.1093/milmed/166.suppl_1.68. PMID 11569397.
  22. ^ Carter KC (January 1985). "Ignaz Semmelweis, Carl Mayrhofer, and the rise of germ theory". Medical History. 29 (1): 33–53. doi:10.1017/S0025727300043738. PMC 1139480. PMID 3883083.
  23. ^ From p. 90 of "The invisible world revealed by the microscope or, thoughts on animalcules.", second edition, 1850 (May have appeared in first edition, too. (Revise date in article to 1846, if so.))
  24. ^ Snowise, Neil G. (7 May 2021). "Memorials to John Snow – Pioneer in Anaesthesia and Epidemiology". Journal of Medical Biography. 31 (1). SAGE Publishing: 47–50. doi:10.1177/09677720211013807. ISSN 1758-1087. PMC 9925902. PMID 33960862. S2CID 233985110.
  25. ^ a b c Snow, John (1855). On the Mode of Communication of Cholera (2nd ed.). London: John Churchill. Archived from the original on 6 March 2023. Retrieved 22 January 2023.
  26. ^ Pasteur, Louis (3 May 1880). "Extension Of The Germ Theory To The Etiology Of Certain Common Disease". Comptes rendus de l'Académie des Sciences. 90. Translated by H.C. Ernst. French Academy of Sciences: 1033–44. Archived from the original on 22 January 2023. Retrieved 22 January 2023 – via Fordham University Modern History Sourcebook.
  27. ^ a b "The Middle Years 1862–1877". Pasteur Institute. 10 November 2016. Archived from the original on 4 February 2023. Retrieved 22 January 2023.
  28. ^ Walker L, Levine H, Jucker M (July 2006). "Koch's postulates and infectious proteins". Acta Neuropathologica. 112 (1): 1–4. doi:10.1007/s00401-006-0072-x. PMC 8544537. PMID 16703338. S2CID 22210933.
  29. ^ Koch R (1884). "Die Aetiologie der Tuberkulose". Mittheilungen aus dem Kaiserlichen Gesundheitsamte. Vol. 2. pp. 1–88.
  30. ^ Koch R (1893). "über den augenblicklichen Stand der bakteriologischen Choleradiagnose". Zeitschrift für Hygiene und Infektionskrankheiten (in German). 14: 319–33. doi:10.1007/BF02284324. S2CID 9388121. Archived from the original on 28 April 2023. Retrieved 2 July 2019.
  31. ^ Brock TD (1999). Robert Koch: a life in medicine and bacteriology. Washington DC: American Society of Microbiology Press. ISBN 1-55581-143-4.
  32. ^ Evans AS (May 1976). "Causation and disease: the Henle-Koch postulates revisited". The Yale Journal of Biology and Medicine. 49 (2): 175–195. PMC 2595276. PMID 782050.
  33. ^ Inglis TJ (November 2007). "Principia aetiologica: taking causality beyond Koch's postulates". Journal of Medical Microbiology. 56 (Pt 11): 1419–1422. doi:10.1099/jmm.0.47179-0. PMID 17965339.
  34. ^ Jacomo V, Kelly PJ, Raoult D (January 2002). "Natural history of Bartonella infections (an exception to Koch's postulate)". Clinical and Diagnostic Laboratory Immunology. 9 (1): 8–18. doi:10.1128/CDLI.9.1.8-18.2002. PMC 119901. PMID 11777823.
  35. ^ Falkow S (1988). "Molecular Koch's postulates applied to microbial pathogenicity" (PDF). Reviews of Infectious Diseases. 10 (Suppl 2): S274 – S276. doi:10.1093/cid/10.Supplement_2.S274. PMID 3055197. S2CID 13602080. Archived from the original (PDF) on 3 March 2019.
  36. ^ Pitt, Dennis; Aubin, Jean-Michel (1 October 2012). "Joseph Lister: Father of Modern Surgery". Canadian Journal of Surgery. 55 (5): E8 – E9. doi:10.1503/cjs.007112. PMC 3468637. PMID 22992425. Archived from the original on 22 January 2023. Retrieved 22 January 2023.

Further reading

[edit]
  • Baldwin, Peter. Contagion and the State in Europe, 1830-1930 (Cambridge UP, 1999), focus on cholera, smallpox and syphilis in Britain, France, Germany and Sweden.
  • Brock, Thomas D. Robert Koch. A Life in Medicine and Bacteriology (1988).
  • Dubos, René. Louis Pasteur: Free Lance of Science (1986)
  • Gaynes, Robert P. Germ Theory (ASM Press, 2023), pp.143-205 online
  • Geison, Gerald L. The Private Science of Louis Pasteur (Princeton University Press, 1995) online
  • Hudson, Robert P. Disease and Its Control: The Shaping of Modern Thought (1983)
  • Lawrence, Christopher, and Richard Dixey. "Practising on Principle: Joseph Lister and the Germ Theories of Disease," in Medical Theory, Surgical Practice: Studies in the History of Surgery ed. by Christopher Lawrence (Routledge, 1992), pp. 153-215.
  • Magner, Lois N. A history of infectious diseases and the microbial world (2008) online
  • Magner, Lois N. A History of Medicine (1992) pp. 305–334. online
  • Nutton, Vivian. "The seeds of disease: an explanation of contagion and infection from the Greeks to the Renaissance." Medical history 27.1 (1983): 1-34. online
  • Porter, Roy. Blood and Guts: A Short History of Medicine (2004) online
  • Tomes, Nancy. 'The gospel of germs: Men, women, and the microbe in American life (Harvard University Press, 1999) online.
  • Tomes, Nancy. "Moralizing the microbe: the germ theory and the moral construction of behavior in the late-nineteenth-century antituberculosis movement." in Morality and health (Routledge, 2013) pp. 271-294.
  • Tomes, Nancy J. "American attitudes toward the germ theory of disease: Phyllis Allen Richmond revisited." Journal of the History of Medicine and Allied Sciences 52.1 (1997): 17-50. online
  • Winslow, Charles-Edward Amory. The Conquest of Epidemic Disease. A Chapter in the History of Ideas (1943) online.
[edit]
三个代表代表了什么 为什么今年夏天特别热 缺钠有什么症状和危害 什么药去湿气最好最快 抖s什么意思
德巴金是什么药 羊和什么属相最配 四大皆空是什么生肖 静脉血是什么颜色 助产学出来是干什么的
蓝灰色配什么颜色好看 头疼是什么原因导致的 心梗吃什么药好得快 肝损害是什么意思 属牛的跟什么属相最配
老是口渴是什么原因 10月15日是什么星座 胃反流是什么原因 爱的反义词是什么 黑油是什么油
社保缴费基数和工资有什么关系hcv9jop1ns9r.cn 燕窝是什么东西做的hcv9jop6ns8r.cn 热痱子长什么样hcv7jop7ns4r.cn 爆菊是什么意思imcecn.com 什么的小莲蓬hcv7jop9ns4r.cn
10月出生是什么星座beikeqingting.com 夏天出汗多是什么原因onlinewuye.com 阴道红肿是什么原因hcv7jop6ns4r.cn 梦见出国了是什么意思hcv7jop4ns8r.cn 精液带血是什么原因hcv9jop5ns3r.cn
什么什么什么花的成语hcv8jop8ns9r.cn hbc是什么意思hcv9jop5ns3r.cn 心率过快吃什么药wmyky.com 依达拉奉注射功效与作用是什么hcv7jop9ns5r.cn 肉字五行属什么hcv8jop2ns3r.cn
春宵一刻值千金什么意思hcv8jop5ns5r.cn 朗朗原名叫什么jingluanji.com 嗜碱性粒细胞偏高是什么原因hcv8jop4ns6r.cn 结婚送什么hcv9jop7ns5r.cn 刻板印象是什么意思hcv9jop7ns2r.cn
百度