Expansion of applied science
the successsful application of chemistry to industry, biology and medicine
ability to manipulate materials, processes, and products
new alloys and synthetic materials: celluloid and other plastics
dyes: Perkin's aniline mauve
explosives: nitrocellulose and dynamite
growth of the chemical industry and leadership in industrial science: petroleum,
chemical analysis of drugs, nutrients, bodily components, and physiology (Justus von Liebig)
new organic products
Liebig's "agricultural chemistry" and fertilizers
anesthesia, e.g. ether and chloroform
new drugs (e.g., chloral hydrate, morphine, cocaine), patent medicines, pharmaceuticals (e.g., aspirin from Bayer)
practical applications of physics, e.g. electrical industry
the human sciences
mathematical models of economics
empirical measurements of human traits, society
statistics applied to medicine and behavior, social issues
models of development of society
optimism for the continued advance of technology
sources of power
materials and chemical technology
mechanical devices -- labor and transport
grand civil engineering
medical breakthroughs
agricultural productivity
new organization of work and the workplace
heightened abilities -- precision, power, and efficacy
New institutions for public science:
Engineering education: Mining Academy [Bergakademie] at Freiberg (1765), École Polytechnique in Paris (1794)
German research universities (Ph.D. degree and laboratory training), e.g. Berlin (1810)
Institute labs, e.g. Royal Institution in London (1799)
government surveys (U.S., 1807), national laboratories and observatories (U.S., 1830), agencies, commissions, and patent offices
Evening public lectures and mechanics' institutes (1823) for continuing education
Exhibitions of wonders and inventions, e.g. The Great Exhibition at the Crystal Palace (1851)
popular demand for science education and application
public education in science
texts and labs in university teaching
land-grant universities (1862)
science degrees and Ph.D.'s (University of London, 1857; Sheffield Scientific School [Yale], 1861)
the "research university" (The Johns Hopkins University,1876)
the rise of professional opportunities
university research (copying Liebig's lab for Ph.D. students)
government science
industrial research & development
The heroic image of the scientist, inventor, and technologist
the range and rate of inventions
new industries
"mechanical" agriculture
advances in chemical physiology, applied to agriculture and medicine
"scientific medicine" after 1860 (Claude Bernard in Paris; The Johns Hopkins University medical school)
the engineering ideal of manipulation and control
Samuel Smiles's Lives of the Engineers (1861) and Men of Invention and Industry (1884)
The turn to scientism: Science as the proper guide or answer
(social) statistics
historical theory
progressivism
historical determinism (hierarchies and destiny)
Marxism
human nature
criminal anthropology (Cesare Lombroso)
eugenics
psychology
explicit conflict with religion
loss of faith
spiritual alternatives
secularism
confluence with issues in Victorian society
growing nationalism and organization of the state
expanding industrialism and capitalism
optimism, confidence, and work-ethic
hierarchies of ethnocentrism, racism, sexism
changing practice and role of religion
5. A vision of modern science in society
satisfaction with mechanistic explanation (no magic)
boundary between science and religion in theory and practice
expertise certified by academic training, professional societies, and peer-reviewed publication
knowledge certified by experiment, statistics, modeling, consilience
progress of scientific knowledge expected and celebrated (even when overturning standard ideas)
promotion of the moral and practical value of science for society
public patronage through industry and foundations and governments
“Scientific Method” as a way of knowing applicable to all problems
© 2024 Dr. William Kimler