Preface 3
Chapter 1. Alkaloids 91.1 Pseudopelletierine From the root-bark of the pomegranate tree 9
1.2 Colchicine From the seeds of the autumn crocus 29
1.3 Capsaicin From Kenyan "African Bird's Eye Chilies" 49
Chapter 2. Coloured Compounds 692.1 Thymoquinone From the oil of the seeds of black caraway 69
2.2 Berberine Chloride From the bark of the common barberry 89
2.3 Carminic acid From dried cochineal 109
2.4 Safflomin A From flowers of the safflower 129
2.5 Chlorophyll a From deep frozen spinach leaves 151
Chapter 3. Carbohydrates and Glycosides 1753.1 Raffinose From the seeds of blue lupins 175
3.2 Fraxin From the shredded bark of the ash tree 195
3.3 Stevioside From the dried leaves of Stevia rebaudiana 215
Chapter 4. Terpenoids 2354.1 Linalool From Brazilian rosewood oil 235
4.2 Camphor From camphor tree oil 255
4.3 Cantharidin From Spanish fly Lytta vesicatoria 275
4.4 Artemisinin From the dried leaves of the annual mugwort 291
4.5 Diosgenin From an extract of the roots of Mexican yams 311
4.6 Friedelin From cork from the bark of the cork-oak 331
4.7 Boswellic acid From frankincense, the resin of the Arabian olibanum tree 353
Chapter 5. Aromatic Compounds 3755.1 Sinensetin From cold-pressed orange oil 375
5.2 Rosmarinic acid From the dried leaves of lemon balm 391
Chapter 6. Quantum Chemical Calculation 411Appendix 417
Spectroscopic Experiments 417
External Photographic Credits 418
Text Credits 419
Chemical Substance Index 421
General Subject Index 424
Name Index 432
As a boy, Dieter Sicker, born in 1954 in Chemnitz, was intrigued by
the phenomena of material transformations in the kitchen. However,
later, he decided to become a chemist rather than a cook. He is
convinced that the manifold knowledge gained in the isolation of
natural products is helpful for any organic chemist. Working as a
lecturer and a practical supervisor at the Institute of Organic
Chemistry at the University of Leipzig, he was awarded the title
apl. professor in 1997. He is fond of presenting experimental shows
in which the beauty of chemistry is both shown and explained to the
public.
Klaus-Peter Zeller, born in 1944 in Baden-Baden, worked several
years as technician before he could realise his dream to study
chemistry. In 1972 he received his doctoral degree from the
University of Tubingen. After postdoctoral work at the Heriot-Watt
University Edinburgh he returned to Tubingen where he became
Professor in 1983. His research and teaching interests focus on
reaction mechanisms, photochemistry, mass spectrometry, and more
recently science history.
In 1968 Hans-Ullrich Siehl started chemistry studies at the
University of Tubingen during, the peak years of student movement
and protest. The
structural formula of Astaxanthin was the required answer to the
1973 organic chemistry diploma question, why the color of the
lobster change to red on cooking. After his PhD thesis on vinyl
cations with Prof. M. Hanack at the University of Saarbrucken he
enjoyed eating lobster at weekends in Maine during his postdoctoral
work on Isotope eff ects with Prof. M. Saunders at Yale University,
Connecticut, 1979. After his Habilitation on NMR spectroscopy of
reactive carbocations in Tubingen in 1987 he enjoyed Japanese
dishes during a one-year JSPS guest professorship at Kyushu
University, Japan. At Ulm University since 1995 his main interests
in experimental physical organic chemistry and NMR spectroscopy
were successively expanded and complemented by quantum chemical
methods such as computational NMR spectroscopy.
Stefan Berger was intrigued by NMR after having won a bottle of
beer during an introductory course in organic NMR led by Prof. H.
Suhr at the University of Tubingen in 1968. After completing a PhD
thesis with Prof. Anton Rieker, in 1973 he joined Prof. J. D.
Roberts at Caltech for postdoctoral work, where he also met Prof.
D.M. Grant and Prof. D. Seebach, who were then guest professors in
Pasadena. This period was decisive to try a Habilitation in NMR
spectroscopy, which was achieved at the University Marburg. At the
University Leipzig his aim is to combine methodological development
of NMR and its application to bioorganic problems.
"This is an outstanding book that should be on the shelves of all chemists. I can best summarise it by reproducing part of Wiley's description on the rear cover "Educating and entertaining this full-colour textbook turns the learning process into a real pleasure, not only for students in natural products chemistry but also experienced professionals"." Edlard R. Adlard, Chromatographia (2019) 82:1425
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