Category: Science

“You Don’t Reach Serendip by Plotting a Course for It”

(p. 320) As John Barth wrote in The Last Voyage of Somebody the Sailor, “You don’t reach Serendip by plotting a course for it. You have to set out in good faith for elsewhere and lose your bearings serendipitously.”28 The challenge for educational institutions, government policy, research centers, funding agencies, and, by extension, all modern medicine, will be how to encourage scientists to lose their bearings creatively. What they discover may just save our lives!

Source:
Meyers, Morton A. Happy Accidents: Serendipity in Modern Medical Breakthroughs. New York: Arcade Publishing, 2007.
(Note: italics in original.)

Successful Discoverers “Follow the Evidence Wherever It Leads”

(p. 314) Why are particular people able to seize on such opportunities and say, “I’ve stumbled upon a solution. What’s the problem?” Typically, such people are not constrained by an overly focused or dogmatic mindset. In contrast, those with a firmly held set of preconceptions are less likely to be distracted by an unexpected or contradictory observation, and yet it is exactly such things that lead to the blessing of serendipitous discovery.
Serendipitous discoverers have certain traits in common. They have a passionate intensity. They insist on trying to see beyond their own and others’ expectations and resist any pressure that would close off investigation. Successful medical discoverers let nothing stand in their way. They break through, sidestep, or ignore any obstacle or objection to their chosen course, which is simply to follow the evidence wherever it leads. They have no patience with dogma of any kind.
The only things successful discoverers do not dismiss out of hand are contradictory–and perhaps serendipitously valuable–facts. They painstakingly examine every aspect of uncomfortable facts until they understand how they fit with other facts. Far from being cavalier about method, serendipitous discoverers subject their evidence and suppositions to the most rigorous methods they can find. They do not run from uncertainty, but see it as the raw material from which new scientific and medical certainties can be wrought.

Source:
Meyers, Morton A. Happy Accidents: Serendipity in Modern Medical Breakthroughs. New York: Arcade Publishing, 2007.

While Looking for Spotted Fever, He Found the Cause of Lyme Disease

(p. A25) Willy Burgdorfer, a medical entomologist who in 1982 identified the cause of what had been a mysterious affliction, Lyme disease, died on Monday [November 17, 2014] at a hospital in Hamilton, Mont. He was 89.
. . .
In the early 1980s, Dr. Burgdorfer was analyzing deer ticks from Long Island that were suspected to have caused spotted fever when he stumbled on something unexpected under his microscope: spirochetes, disease-causing bacteria shaped like corkscrews. They were located in only one section of the ticks, the so-called midguts. He had studied spirochetes in graduate school.
“Once my eyes focused on these long, snakelike organisms, I recognized what I had seen a million times before: spirochetes,” he said in a 2001 oral history for the National Institutes of Health, which include the National Institute of Allergy and Infectious Diseases.
He had not been working on Lyme disease, but he had spoken with the doctor who helped discover it, Dr. Allen Steere of Yale. After he saw the spirochetes in the Long Island ticks, he quickly realized that the bacteria might also be in the deer ticks believed to be playing a role in Lyme disease in Connecticut and elsewhere, including Long Island.

For the full obituary, see:
WILLIAM YARDLEY. “Willy Burgdorfer, Who Found Bacteria That Cause Lyme Disease, Is Dead at 89.” The New York Times (Thurs., NOV. 20, 2014): A25.
(Note: ellipsis, and bracketed date, added.)
(Note: the online version of the obituary has the date NOV. 19, 2014.)

“Peer Review Institutionalizes Dogmatism by Promoting Orthodoxy”

(p. 305) Peer review institutionalizes dogmatism by promoting orthodoxy. Reviewers prefer applications that mesh with their own perspective on how an issue should be conceptualized, and they favor individuals whom they know or whose reputations have already been established, making it harder for new people to break into the system.6 Indeed, the basic process of peer review demands conformity of thinking and disdains a maverick’s approach. “We can hardly expect a committee,” said the biologist and historian of science, Garrett Hardin, “to acquiesce in the dethronement of tradition. Only an individual can do that.”7 Young investigators get the message loud and clear: Do not challenge existing beliefs and practices.
So enmeshed in the conventional wisdoms of the day, so-called “peers” have again and again failed to appreciate major breakthroughs even when they were staring them in the face. This reality is evidenced by the fact that so many pioneering researchers were inappropriately scheduled to present their findings at undesirable times when few people were in the audience to hear about them.

Source:
Meyers, Morton A. Happy Accidents: Serendipity in Modern Medical Breakthroughs. New York: Arcade Publishing, 2007.

With Targeted Research, Scientists Not Allowed to Pursue Serendipitous Discoveries

(p. 303) When scientists were allowed to pursue whatever they found, serendipitous discovery flourished.
Today, targeted research is pretty much all there is. Yet, as Richard Feynman put it in his typical rough-hewn but insightful manner, giving more money “just increases the number of guys following the comet head.”2 Money doesn’t foster new ideas, ideas that drive science; it only fosters applications of old ideas, most often enabling improvements but not discoveries.

Source:
Meyers, Morton A. Happy Accidents: Serendipity in Modern Medical Breakthroughs. New York: Arcade Publishing, 2007.

Government Funding Not Conducive to Serendipity

(p. 301) Even in the early twentieth century, the climate was more conducive to serendipitous discovery. In the United States, for example, scientific research was funded by private foundations, notably the Rockefeller Institute for Medical Research in New York (established 1901) and the Rockefeller Foundation (1913). The Rockefeller Institute modeled itself on prestigious European organizations such as the Pasteur Institute in France and the Koch Institute in Germany, recruiting the world’s best scientists and providing them with comfortable stipends, well-equipped laboratories, and freedom from teaching obligations and university politics, so that they could devote their energies to research. The Rockefeller Foundation, which was the most expansive supporter of basic research, especially in biology, between the two world wars, relied on successful programs to seek promising scientists to identify and accelerate burgeoning fields of interest. In Britain, too, the Medical Research Council believed in “picking the man, not the project,” and nurturing successful results with progressive grants.
After World War II, everything about scientific research changed. The U.S. government–which previously had had little to do with funding research except for some agricultural projects–took on a major role. The National Institutes of Health (NIH) grew out of feeble beginnings in 1930 but became foremost among the granting agencies in the early 1940s at around the time they moved to Bethesda, Maryland. The government then established the National Science Foundation (NSF) in 1950 to promote progress in science and engineering. Research in the United States became centralized and therefore suffused with bureaucracy. The lone scientist working independently was now a rarity. Research came to be characterized by large teams drawing upon multiple scientific disciplines and using highly technical methods in an environment that promoted the not-very-creative phenomenon known as “groupthink.” Under this new regime, the competition (p. 302) among researchers for grant approvals fostered a kind of conformity with existing dogma. As the bureaucracy of granting agencies expanded, planning and justification became the order of the day, thwarting the climate in which imaginative thought and creative ideas flourish.

Source:
Meyers, Morton A. Happy Accidents: Serendipity in Modern Medical Breakthroughs. New York: Arcade Publishing, 2007.

Eisenhower Warned that “a Government Contract Becomes Virtually a Substitute for Intellectual Curiosity”

(p. 300) In his farewell address on January 17, 1961, President Dwight Eisenhower famously cautioned the nation about the influence of the “military-industrial complex,” coining a phrase that became part of the political vernacular. However, in the same speech, he presciently warned that scientific and academic research might become too dependent on, and thus shaped by, government grants. He foresaw a situation in which “a government contract becomes virtually a substitute for intellectual curiosity.”

Source:
Meyers, Morton A. Happy Accidents: Serendipity in Modern Medical Breakthroughs. New York: Arcade Publishing, 2007.

Much Knowledge Results from Mistaken Hypotheses

(p. 239) If we were to eliminate from science all the great discoveries that had come about as the result of mistaken hypotheses or fluky experimental data, we would be lacking half of what we now know (or think we know). –NATHAN KLINE, AMERICAN PSYCHIATRIST

Source:
Nathan Kline as quoted in Meyers, Morton A. Happy Accidents: Serendipity in Modern Medical Breakthroughs. New York: Arcade Publishing, 2007.

Scientists Seriously Discuss Geoengineering Solutions to Global Warming

(p. A1) UTRECHT, the Netherlands — The solution to global warming, Olaf Schuiling says, lies beneath our feet.
For Dr. Schuiling, a retired geochemist, climate salvation would come in the form of olivine, a green-tinted mineral found in abundance around the world. When exposed to the elements, it slowly takes carbon dioxide from the atmosphere.
Olivine has been doing this naturally for billions of years, but Dr. Schuiling wants to speed up the process by spreading it on fields and beaches and using it for dikes, pathways, even sandboxes. Sprinkle enough of the crushed rock around, he says, and it will eventually remove enough CO2 to slow the rise in global temperatures.
“Let the earth help us to save the earth,” said Dr. Schuiling, who has been pursuing the idea single-mindedly for several decades and at 82 is still writing papers on the subject from his cluttered office at the University of Utrecht.
Once considered the stuff of wild-eyed fantasies, such ideas for countering climate change — known as geoengineering solutions, because they intentionally manipulate nature — are now being discussed seriously by scientists.

For the full story, see:
HENRY FOUNTAIN. “Climate Cures Seeking to Tap Nature’s Power.” The New York Times (Mon., NOV. 10, 2014): A1 & A6.
(Note: italics in original; ellipsis added.)
(Note: the online version of the story has the date NOV. 9, 2014, and has the title “Climate Tools Seek to Bend Nature’s Path.”)

Alertness to What Problem Can Be Solved with Unexpected Results

(p. 208) “Every scientist must occasionally turn around and ask not merely, ‘How can I solve this problem?’ but, ‘Now that I have come to a result, what problem have I solved?” This use of reverse questions is of tremendous value precisely at the deepest parts of science.”–NORBERT WIENER, INVENTION:THE CARE AND FEEDING OF IDEAS

Source:
Norbert Wiener as quoted in Meyers, Morton A. Happy Accidents: Serendipity in Modern Medical Breakthroughs. New York: Arcade Publishing, 2007.

Simplot’s Company Keeps Innovating with Potatoes

(p. B1) A potato genetically engineered to reduce the amounts of a potentially harmful ingredient in French fries and potato chips has been approved for commercial planting, the Department of Agriculture announced on Friday [November 7, 2014].
The potato’s DNA has been altered so that less of a chemical called acrylamide, which is suspected of causing cancer in people, is produced when the potato is fried.
The new potato also resists bruising, a characteristic long sought by potato growers and processors for financial reasons. Potatoes bruised during harvesting, shipping or storage can lose value or become unusable.
The biotech tubers were developed by the J. R. Simplot Company, a privately held company based in Boise, Idaho, which was the initial supplier of frozen French fries to McDonald’s in the 1960s and is still a major supplier. The company’s founder, Mr. Simplot, who died in 2008, became a billionaire.
The potato is one of a new wave of genetically modified crops that aim to provide benefits to consumers, not just to farmers as the widely grown biotech crops like herbicide-tolerant soybeans and corn do. The nonbruising aspect of the potato is similar to that of genetically engineered nonbrowning apples, developed by Okanagan Specialty Fruits, which are awaiting regulatory approval.
. . .
The question now is whether the potatoes — which come in the Russet Burbank, Ranger Russet and Atlantic varieties — will be adopted by food companies and restaurant chains. At least one group opposed to such crops has already pressed McDonald’s to reject them.

For the full story, see:
ANDREW POLLACK. “New Potato, Hot Potato: U.S. Approves Modified Crop. Next Up: French-Fry Fans.” The New York Times (Sat., NOV. 8, 2014): B1-B2.
(Note: ellipsis, and bracketed date, added.)
(Note: the online version of the story has the date NOV. 7, 2014, and has the title “U.S.D.A. Approves Modified Potato. Next Up: French Fry Fans.”)