The Double Helix: A Personal Account of the Discovery of the Structure of DNA"'It is a strange model and embodies several unusual features. However, since DNA is an unusual substance, we are not hesitant in being bold.' Thus quietly, Jim Watson, aged twenty-four, wrote from Cambridge to a friend in the States, one month before the public announcement in April 1953 of a discovery that many scientists now call the most significant since Mendel's. DNA is the molecule of heredity, and to know its structure and method of reproduction enables science to know how genetic directions are written and transmitted, how the forms of life are ordered from one generation to the next. The search for this molecular structure is the story told here, in a book that also has its unusual features as well as a measure of boldness. The work was done between the fall of 1951 and April 1953, and the scientific paper announcing the discovery was published in Nature immediately. In 1962 the Nobel Prize for Medicine and Physiology was awarded to Francis H. C. Crick, James D. Watson, and Maurice H. E Wilkins, the three men who almost a decade earlier had worked together, merging data from chemistry, physics, and biology, to solve the structure of DNA--Crick and Watson on the building of a hypothetical model that would conform in all its parts to what Wilkins' X-ray pictures had already shown of the molecule. The interplay of ideas, temperaments, and circumstances was an especially fortuitous one, since the result was something that, in Watson's words, was too pretty not to be true: the double helix. Watson shows us how this particular piece of science was worked out, but along the way he manages to tell a great deal more, something of the general creative process itself. It is his own account and, in order to recapture some of the original excitement, he has told it now as he saw it then, in the early 1950s. It is not, perhaps, wholly objective. Involved is the way a young American scientist saw the challenge of a great discovery waiting to be made, and the way he was caught up into the very air of Cambridge and the minds it nurtured; there was also the boredom of tedious experiment, and the aggressive miscalculations resulting from wrong notions stubbornly held to or facts only half understood; there were self-doubts and insecurities, both intellectual and social; there was hard competition, between men and labs as well as theories, and one had to learn tightrope walking; there were dull conferences to attend, but warm and fascinating people to talk to; there was more than work--the Backs of the colleges, beside the River Cam, to walk along, foreign girls to be puzzled by, finances to be figured, wine to be tasted, books and politics to be argued. There was much to be learned, and since science is also part of life, this is the kind of whole picture Watson gives. It is an amazing narrative. What we have, then, is more than the 'inside story' of one participant's version of a revolutionary discovery. We have a book, written on the assumption that science is a human endeavor, and important enough to be written about forthrightly."--Dust jacket. |
From inside the book
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Page 52
... sugar and phosphate components . Their unique- ness lay in their nitrogenous bases , which were either a purine ( adenine and guanine ) or a pyrimidine ( cyto- sine and thymine ) . But since the ... sugar sugar sugar sugar phos phate.
... sugar and phosphate components . Their unique- ness lay in their nitrogenous bases , which were either a purine ( adenine and guanine ) or a pyrimidine ( cyto- sine and thymine ) . But since the ... sugar sugar sugar sugar phos phate.
Page 53
... sugar sugar sugar sugar phos phate phos phate nucleotide phos phate phos- phatey base sugar phos- phate A short section of DNA as envisioned by Alexander Todd's research group in 1951. They thought that all the internucleotide links ...
... sugar sugar sugar sugar phos phate phos phate nucleotide phos phate phos- phatey base sugar phos- phate A short section of DNA as envisioned by Alexander Todd's research group in 1951. They thought that all the internucleotide links ...
Page 187
... sugar N C C NH C sugar N H C N H H N H NH H H H NH H N C NH C H N C O N N C N sugar NC sugar H adenine with adenine cytosine with cytosine sugar HN N H NO H H N N N C N C C C N NC NH H sugar H sugar N C H C C H H H N C H C C C N N sugar ...
... sugar N C C NH C sugar N H C N H H N H NH H H H NH H N C NH C H N C O N N C N sugar NC sugar H adenine with adenine cytosine with cytosine sugar HN N H NO H H N N N C N C C C N NC NH H sugar H sugar N C H C C H H H N C H C C C N N sugar ...
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Common terms and phrases
a-helix adenine answer argument arranged arrival atoms bacterial base pairs biochemistry biological Cal Tech Cambridge Cavendish Chargaff's chemical chemistry chemists College conversation Copenhagen crystallographic crystals cytosine Delbrück dinner DNA molecule DNA structure double helix Elizabeth existed experiments fact fellowship Francis Crick genes genetic geneticists Griffith guanine Herman hope Hugh Huxley hydrogen bonds idea immediately important interest ions John Kendrew keto King's knew large number letter like-with-like Linus Pauling London look lunch Luria manuscript Maurice Wilkins Maurice's Max and John Max Delbrück Max Perutz ment model building Moreover morning never Nonetheless nucleic acids nucleotides Odile Pauling's Perutz Peter phage phosphate groups Pop's possibility problem protein purine purine and pyrimidine pyrimidine quickly realized reason Rosalind Franklin Rosy Rosy's scientific solve soon sugar sugar-phosphate backbone talk tautomeric forms tell thought thymine tion told walked wanted Watson week X-ray diffraction X-ray pictures