The chemistry book From gunpowder to graphene, 250 milestones in the history of chemistry

Derek B. Lowe

Book - 2016

The author explores 250 of the most significant and interesting chemistry milestones from c. 500,000 BCE to 2030. Chronologically organized, the entries each consist of a short summary and an image. The book presents an array of discoveries, theories, and technological applications as it traces the evolution of the "central science"--From publisher's description.

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Subjects
Published
New York : Sterling [2016]
Language
English
Main Author
Derek B. Lowe (author)
Physical Description
527 pages : color illustrations, portraits ; 22 cm
Bibliography
Includes bibliographical references (pages 514-524) and index.
ISBN
9781454911807
  • C. 500,000 BCE: crystals
  • c. 3300 BCE: bronze
  • c. 2800 BCE: soap
  • c. 1300 BCE: iron smelting
  • c. 1200 BCE: purification
  • c. 550 BCE: gold refining
  • c. 450 BCE: the four elements
  • c. 400 BCE: atomism
  • 210 BCE: mercury
  • c. 60 CE: natural products
  • c. 126: Roman concrete
  • c. 200: porcelain
  • c. 672: Greek fire
  • c. 800: the philosopher's stone
  • c. 800: Viking steel
  • c. 850: gunpowder
  • c. 900: alchemy
  • c. 1280: aqua regia
  • c. 1280: fractional distillation
  • 1538: toxicology
  • 1540: diethyl ether
  • 1556: 'De re metallica'
  • 1605: the advancement of learning
  • 1607: Yorkshire alum
  • 1631: quinine
  • 1661: 'The skeptical chymist'
  • 1667: phlogiston
  • 1669: phosphorus
  • 1700: hydrogen sulfide
  • c. 1706: Prussian blue
  • 1746: sulfuric acid
  • 1752: hydrogen cyanide
  • 1754: carbon dioxide
  • 1758: Cadet's fuming liquid
  • 1766: hydrogen
  • 1774: oxygen
  • 1789: conservation of mass
  • 1791: titanium
  • 1792: ytterby
  • 1804: morphine
  • 1805: electroplating
  • 1806: amino acids
  • 1807: electrochemical reduction
  • 1808: Dalton's atomic theory
  • 1811: Avogadro's hypothesis
  • 1813: chemical notation
  • 1814: Paris green
  • 1815: cholesterol
  • 1819: caffeine
  • 1822: supercritical fluids
  • 1828: Beryllium
  • 1828: Wöhler's urea synthesis
  • 1832: functional groups
  • 1834: ideal gas law
  • 1834: photochemistry
  • 1839: polymers and polymerization
  • 1839: daguerreotype
  • 1839: rubber
  • 1840: ozone
  • 1842: phosphate fertilizer
  • 1847: nitroglycerine
  • 1848: chirality
  • 1852: fluorescence
  • 1854: separatory funnel
  • 1856: Perkin's mauve
  • 1856: mirror silvering
  • 1859: flame spectroscopy
  • 1860: Cannizzaro at Karlsruhe
  • 1860: oxidation states
  • 1861: Erlenmeyer flask
  • 1861: structural formula
  • 1864: Solvay process
  • 1865: benzene and aromaticity
  • 1868: helium
  • 1869: the periodic table
  • 1874: tetrahedral carbon atoms
  • 1876: Gibbs free energy
  • 1877: Maxwell-Boltzmann distribution
  • 1877: Friedel-Crafts reaction
  • 1878: indigo synthesis
  • 1879: Soxhlet extractor
  • 1881: Fougère Royale
  • 1883: Claus process
  • 1883: liquid nitrogen
  • 1884: Fischer and sugars
  • 1885: Le Châtelier's principle
  • 1886: isolation of fluorine
  • 1886: aluminum
  • 1887: cyanide gold extraction
  • 1888: liquid crystals
  • 1891: thermal cracking
  • 1892: chlor-alkali process
  • 1892: acetylene
  • 1893: thermite
  • 1893: borosilicate glass
  • 1893: coordination compounds
  • 1894: the mole
  • 1894: asymmetrical induction
  • 1894: diazomethane
  • 1895: liquid air
  • 1896: greenhouse effect
  • 1897: aspirin
  • 1897: zymase fermentation
  • 1897: hydrogenation
  • 1898: neon
  • 1900: Grignard reaction
  • 1900: free radicals
  • 1900: silicones
  • 1901: chromatography
  • 1902: polonium and radium
  • 1905: infrared spectroscopy
  • 1907: Bakelite
  • 1907: spider silk
  • 1909: pH and indicators
  • 1909: Haber-Bosch process
  • 1909: Salvarsan
  • 1912: x-ray crystallography
  • 1912: Maillard reaction
  • 1912: stainless steel
  • 1912: boranes and the vacuum-line technique
  • 1912: dipole moments
  • 1913: mass spectrometry
  • 1913: isotopes
  • 1915: chemical warfare
  • 1917: surface chemistry
  • 1918: Radithor
  • 1920: Dean-Stark trap
  • 1920: hydrogen bonding
  • 1921: tetraethyl lead
  • 1923: acids and bases
  • 1923: radioactive tracers
  • 1925: Fischer-Tropsch process
  • 1928: Diels-Alder reaction
  • 1928: Reppe chemistry
  • 1930: chlorofluorocarbons
  • 1931: sigma and pi bonding
  • 1931: deuterium
  • 1932: carbonic anhydrase
  • 1932: vitamin C
  • 1932: sulfanilamide
  • 1933: polyethylene
  • 1934: superoxide
  • 1934: the fume hood
  • 1935: transition state theory
  • 1935: nylon
  • 1936: nerve gas
  • 1936: technetium
  • 1937: cellular respiration
  • 1937: elixir sulfanilamide
  • 1937: reaction mechanisms
  • 1938: catalytic cracking
  • 1938: Teflon
  • 1939: the last element in nature
  • 1939: 'The nature of the chemical bond'
  • 1939: DDT
  • 1940: gaseous diffusion
  • 1942: steroid chemistry
  • 1942: cyanoacrylates
  • 1943: LSD
  • 1943: streptomycin
  • 1943: Bari raid
  • 1944: Birch reduction
  • 1944: magnetic stirring
  • 1945: penicillin
  • 1945: glove boxes
  • 1947: antifolates
  • 1947: kinetic isotope effects
  • 1947: photosynthesis
  • 1948: Donora death fog
  • 1949: catalytic reforming
  • 1949: molecular disease
  • 1949: nonclassical ion controversy
  • 1950: conformational analysis
  • 1950: cortisone
  • 1950: rotary evaporator
  • 1951: Sanger sequencing
  • 1951: the pill
  • 1951: alpha-helix and beta-sheet
  • 1951: ferrocene
  • 1951: transuranic elements
  • 1952: gas chromatography
  • 1952: Miller-Urey experiment
  • 1952: zone refining
  • 1952: thallium poisoning
  • 1953: DNA's structure
  • 1953: synthetic diamond
  • 1955: electrophoresis
  • 1956: the hottest flame
  • 1957: luciferin
  • 1958: DNA replication
  • 1960: thalidomide
  • 1960: resolution and chiral chromatography
  • 1961: NMR
  • 1962: green fluorescent protein
  • 1962: Noble gas compounds
  • 1962: isoamyl acetate and esters
  • 1963: Zieger-Natta catalysis
  • 1963: Merrifield synthesis
  • 1963: dipolar cycloadditions
  • 1964: Kevlar
  • 1965: protein crystallography
  • 1965: cisplatin
  • 1965: lead contamination
  • 1965: methane hydrate
  • 1965: Woodward-Hoffman rules
  • 1966: polywater
  • 1967: HPLC
  • 1968: BZ reaction
  • 1969: Murchison meteorite
  • 1969: Gore-Tex
  • 1970: carbon dioxide scrubbing
  • 1970: computational chemistry
  • 1970: glyphosate
  • 1971: reverse-phase chromatography
  • 1972: rapamycin
  • 1973: B12 synthesis
  • 1974: CFCs and the ozone layer
  • 1975: enzyme stereochemistry
  • 1976: PET imaging
  • 1977: Nozaki coupling
  • 1979: tholin
  • 1980: iridium impact hypothesis
  • 1982: unnatural products
  • 1982: MPTP
  • 1983: polymerase chain reaction
  • 1984: electrospray LC/MS
  • 1984: AZT and antiretrovirals
  • 1984: quasicrystals
  • 1984: Bhopal disaster
  • 1985: fullerenes
  • 1985: MALDI
  • 1988: modern drug discovery
  • 1988: PEPCON explosion
  • 1989: Taxol
  • 1991: carbon nanotubes
  • 1994: palytoxin
  • 1997: coordination frameworks
  • 1998: recrystallization and polymorphs
  • 2001: click triazoles
  • 2004: graphene
  • 2005: shikimic acid shortage
  • 2005: olefin metathesis
  • 2006: flow chemistry
  • 2006: isotopic distribution
  • 2009: acetonitrile
  • 2010: engineered enzymes
  • 2010: metal-catalyzed couplings
  • 2013: single-molecule images
  • 2025: hydrogen storage
  • 2030: artificial photosynthesis.
Review by Choice Review

This entertaining, instructive, and informative book will appeal to a wide audience. The unusual format presents, in chronological order from c. 500,000 BCE ("Crystals") to 2030 ("Artificial Photosynthesis"), one full-page chemical historical essay opposite a full-page (mostly) color illustration related to it. "Milestones" includes a wide range of chemistry-related subjects, e.g., "Toxicology," "Phosphate Fertilizer," "Mirror Silvering," "Cholesterol," "Teflon." Medicinal chemist Lowe (Vertex Pharmaceuticals) is well known for his columns and his blog, In the Pipeline, and in his first book displays the writing skills and general command of chemistry and its history that have made him popular. Each essay is supported by references, usually to secondary or tertiary sources. Summing Up: Highly recommended. All library collections. --Harold Goldwhite, California State University, Los Angeles

Copyright American Library Association, used with permission.