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Societies have developed many mechanisms to honor their most illustrious members. Some get recognized during their lifetimes, through titles such as knighthood or awards like the Nobel Prize. Others get put to rest in special places, such as Arlington National Cemetery or the Pantheon in Paris. Saints are canonized and so are baseball players – in their respective Halls of Fame.
Over the next two chapters, we will study the process of historical canonization by analyzing two long-standing New York institutions: the Hall of Fame for Great Americans in the Bronx and the Baseball Hall of Fame in the tiny village of Cooperstown. Both have held elections for more than 70 years, enough time to observe changes in each member's reputation in the years following selection. These institutions provide a natural laboratory to study how time erodes fame, and the limits to which knowledgeable observers can separate the gold from the dross of history.
The Hall of Fame for Great Americans
New York institutions rise and fall around real estate. The history of the city properly began when Peter Minuit (1580–1638) [3248] bought Manhattan from the Indians on May 24, 1626 for goods worth 60 Dutch guilders. Traditionally converted to $24, it was a steal: likely in more ways than one.
The Hall of Fame for Great Americans also began with a real estate transaction. Toward the end of the nineteenth century, New York University acquired land in the Bronx to serve as a new undergraduate campus.
The first part of this book established the general validity of our ranking methods, and used them to illustrate grand themes and processes of history: canonization in textbooks, evaluating the precision of selection processes, measuring the flow of time, and quantifying changes in the perception of gender.
Now we will reduce our focus to the particular. We rank the significance of the world's historical figures in terms of the different niches they occupy: politicians, scientists, religious leaders, artists, actors, outlaws, and even dentists. It is instructive to see who rises to the top of each individual heap, both to refresh our memory on old historical friends and to make new ones. You have our blessing to skim through any group that you are not interested in, but sneak a peek at the ranking tables before you move on.
Some may question how we decide which figures belong in a particular group. Defining exactly who is an actor, an outlaw, or a dentist turns out to be very difficult to do in a precise way. We used the following methodology. We would start from a roster assembled in some book or Wikipedia category, and then amend the lists based on general knowledge and our sense of the nature of the category. No doubt certain omissions remain, although we believe that we have captured most of the usual suspects.
This first chapter concerns America's political leaders, from our presidents down to the mayors of our greatest cities.
Is Hitler bigger than Napoleon? Washington bigger than Lincoln? Picasso bigger than Einstein? Quantitative analysts are rapidly finding homes in social and cultural domains, from finance to politics. What about history? In this fascinating book, Steve Skiena and Charles Ward bring quantitative analysis to bear on ranking and comparing historical reputations. They evaluate each person by aggregating the traces of millions of opinions, just as Google ranks webpages. The book includes a technical discussion for readers interested in the details of the methods, but no mathematical or computational background is necessary to understand the rankings or conclusions. Along the way, the authors present the rankings of more than one thousand of history's most significant people in science, politics, entertainment, and all areas of human endeavor. Anyone interested in history or biography can see where their favorite figures place in the grand scheme of things.
Throughout history, left-handedness has been viewed as being the mark of the devil, as evidence of mental retardation or neurosis, as showing a predisposition to criminality, or as being linked to every perceived social ill. Even into the nineteenth century, many scientists were of the opinion that left-handedness was the sign of a sinister personality. An eminent ethnologist and one of the first scientific archaeologists, Daniel Wilson (1816–92), who introduced into English the word 'prehistoric', became aware of the fact that there were as many left-handed Stone Age implements as right. As a left-hander himself, he was fascinated by these discoveries. Published in 1891, his last major work gives the results of his studies of left-handedness, which he concludes is hereditary and relates to the dominance of one hemisphere of the brain.
During the early nineteenth-century craze for conducting kite experiments in lightning, deaths were not unheard of. Electrical physicists, meanwhile, were often shocked badly enough to collapse in the course of their work. However, the perils of electricity did not deter its proponents. Published in 1844, this enlarged collection of lectures by Henry Minchin Noad (1815–77) had proven immensely popular in earlier incarnations, eventually running to four editions and recognised as an invaluable textbook for electricians and telegraph engineers until the turn of the century. An electrical practitioner himself, Noad includes illustrated explanations of some of the most significant ideas in the field, and describes many of his own experiments, from his version of the lightning kite to a battery constructed with fifty jars and a thousand feet of wire. His work remains relevant to students in the history of science.
Originally apprenticed to a bookbinder, Michael Faraday (1791–1867) began to attend Sir Humphrey Davy's chemistry lectures purely out of interest. Although he soon recognised that science would be his vocation, there was no defined career path to follow, and when he applied to Davy for work he was gently told to 'attend to the bookbinding'. It was only after a laboratory explosion in which Davy partially lost his sight that Faraday was taken on as his amanuensis. From this difficult beginning stemmed perhaps the most famous scientific career of the nineteenth century. This three-volume collection of Faraday's papers provides a comprehensive record of a key branch of his work. Volume 3, first published in 1855, includes his landmark paper on the effect of magnetism on light (known now as the Faraday Effect), work on the chemical implications of magnetism, and a fascinating speculation on a link between electricity and gravity.
A key figure in the field of evolutionary biology, William Bateson (1861–1926) revived Mendelian methods of analysis to develop Darwin's theory of evolution, thereby pioneering the study of genetics. In these lectures, published at Yale in 1913, Bateson systematically chronicles the era's conflicting and developing theories on taxonomy, speciation, variation and hybridisation, and includes his own thoughts on continuous and discontinuous variation and its causes. Drawing on the comparative physiology and anatomy of species that he knew from his wide experience, citing detailed examples from across the taxonomic kingdoms, Bateson brings to life this exciting time in biology. Because the theories central to the modern understanding of genetics, heredity and evolution were formed at this time, this work remains valuable and relevant to students of biology and the history of science.
Originally apprenticed to a bookbinder, Michael Faraday (1791–1867) began to attend Sir Humphrey Davy's chemistry lectures purely out of interest. Although he soon recognised that science would be his vocation, there was no defined career path to follow, and when he applied to Davy for work he was gently told to 'attend to the bookbinding'. It was only after a laboratory explosion in which Davy partially lost his sight that Faraday was taken on as his amanuensis. From this difficult beginning stemmed perhaps the most famous scientific career of the nineteenth century. This three-volume collection of Faraday's papers provides a comprehensive record of a key branch of his work. Volume 2, first published in 1844, includes essays on the illusions caused by lightning, the chemistry of a voltaic pile, and his defence against accusations that the idea behind his electromagnetic motor was stolen from another physicist.
An electric arc is formed when a current passes between two conductors through a non-conducting medium like air. Although the phenomenon was discovered during early electrical experiments and utilised widely in lighting by the end of the nineteenth century, its problems were not fully understood. First published in 1902, this book represents one of the first systematic investigations of the electric arc, and the best-known work of suffragist and electrical engineer Hertha Ayrton (1854–1923). It includes a chapter on the history of the discovery, over a hundred illustrations and tables, and Ayrton's explanation of the enduring problem of arc instability. As a result of her research, she went on to patent anti-aircraft lights and new arc-lamp technology. She later became the first female recipient of the Royal Society's Hughes Medal. Remaining relevant to students of electrical engineering and the history of science, this book shares her insights and expertise.