FDA Forces Child to Go to London to Get Drug to Fight His Cancer

(p. A15) How far would you go to get a drug that could save your child’s life? Across an ocean? That is exactly what the federal government is forcing some American families with dying children to do.
In 2012, when Diego Morris was 11 years old, he was diagnosed with a deadly cancer in his leg called osteosarcoma. Doctors at St. Jude Children’s Research Hospital in Memphis, Tenn., removed the tumor, but the prognosis was poor. There was a significant risk that even extensive chemotherapy after surgery would not prevent the cancer from returning.
Fortunately, a team of doctors at MD Anderson Cancer Center in Houston and Memorial Sloan Kettering Cancer Center in New York City had developed a revolutionary new drug, mifamurtide (MTP), that can prevent osteosarcoma from coming back. A study by Dr. Eugenie Kleinerman of MD Anderson and Dr. Paul Meyers of Sloan Kettering showed the drug resulted in a 30% reduction in the osteosarcoma mortality rate at eight years after diagnosis.
The drug was approved in 2009 by the European Medicines Agency and is currently the standard of care in Europe, Israel and many other countries. In 2012 it received the prestigious Prix Galien Award, the gold medal for pharmaceutical research and development in the United Kingdom.
MPT was exactly what Diego needed. But there was one problem: The drug was not available in America because the Food and Drug Administration had rejected it, demanding additional studies. That meant that Diego had to travel from Phoenix to London to get the drug he needed to save his life–a drug that was available in almost every industrialized nation and should have been available in the U.S.

For the full commentary, see:

DARCY OLSEN. “Winning the Right to Save Your Own Life; As the FDA dawdles, 24 states pass ‘right-to-try’ laws giving terminally ill patients access to drugs.” The Wall Street Journal (Fri., Nov. 27, 2015): A15.

(Note: the online version of the commentary has the date Nov. 26, 2015.)

Olsen’s commentary is related to her book:
Olsen, Darcy. The Right to Try: How the Federal Government Prevents Americans from Getting the Lifesaving Treatments They Need. New York: HarperCollins Publishers, 2015.

Climate Change Likely to Be Slower and Less Harmful than Feared

(p. A11) . . . , we are often told by journalists that the science is “settled” and there is no debate. But scientists disagree: They say there is great uncertainty, and they reflected this uncertainty in their fifth and latest assessment for the United Nations Intergovernmental Panel on Climate Change (IPCC). It projects that temperatures are likely to be anything from 1.5 to 4.5 degrees Celsius (2.7 to 8.1 degrees Fahrenheit) warmer by the latter part of the century–that is, anything from mildly beneficial to significantly harmful.
As for the impact of that future warming, a new study by a leading climate economist, Richard Tol of the University of Sussex, concludes that warming may well bring gains, because carbon dioxide causes crops and wild ecosystems to grow greener and more drought-resistant. In the long run, the negatives may outweigh these benefits, says Mr. Tol, but “the impact of climate change does not significantly deviate from zero until 3.5°C warming.”
Mr. Tol’s study summarizes the effect we are to expect during this century: “The welfare change caused by climate change is equivalent to the welfare change caused by an income change of a few percent. That is, a century of climate change is about as good/bad for welfare as a year of economic growth. Statements that climate change is the biggest problem of humankind are unfounded: We can readily think of bigger problems.” No justification for prioritizing climate change over terrorism there.
. . .
To put it bluntly, climate change and its likely impact are proving slower and less harmful than we feared, while decarbonization of the economy is proving more painful and costly than we hoped. The mood in Paris will be one of furious pessimism among the well-funded NGOs that will attend the summit in large numbers: Decarbonization, on which they have set their hearts, is not happening, and they dare not mention the reassuring news from science lest it threaten their budgets.
Casting around for somebody to blame, they have fastened on foot-dragging fossil-fuel companies and those who make skeptical observations, however well-founded, about the likelihood of dangerous climate change. Scientific skeptics are now routinely censored, or threatened with prosecution. One recent survey by Rasmussen Reports shows that 27% of Democrats in the U.S. are in favor of prosecuting climate skeptics. This is the mentality of religious fanaticism, not scientific debate.

For the full commentary, see:
MATT RIDLEY And BENNY PEISER. “Your Complete Guide to the Climate Debate; At the Paris conference, expect an agreement that is sufficiently vague and noncommittal for all countries to claim victory.” The Wall Street Journal (Sat., Nov. 28, 2015): A11.
(Note: ellipses added.)
(Note: the online version of the commentary has the date Nov. 27, 2015.)

The Tol working paper mentioned above, is:
Tol, Richard S. J. “Economic Impacts of Climate Change.” University of Sussex Economics Working Paper No. 75-2015.

Marie Curie Opposed Patents Because Women Could Not Own Property in France

(p. C6) Ms. Wirtén, a professor at Linköping University in Sweden, pays special attention to the decision not to patent and how it was treated in the founding texts of the Curie legend: Curie’s 1923 biography of her husband, “Pierre Curie,” and their daughter Eve’s 1937 biography of her mother, “Madame Curie.” The books each recount a conversation in which husband and wife agree that patenting their radium method would be contrary to the spirit of science.
It is not quite that simple. As Ms. Wirtén points out, the Curies derived a significant portion of their income from Pierre’s patents on instruments. Various factors besides beneficence could have affected their decision not to extend this approach to their radium process. Intriguingly, the author suggests that the ineligibility of women to own property under French law might have shaped Curie’s perspective. “Because the law excluded her from the status of person upon which these intellectual property rights depend,” Ms. Wirtén writes, “the ‘property’ road was closed to Marie Curie. The persona road was not.”

For the full review, see:
EVAN HEPLER-SMITH. “Scientific Saint; After scandals in France, Curie was embraced by American women as an intellectual icon.” The Wall Street Journal (Sat., March 21, 2015): C6.
(Note: the online version of the review has the date March 20, 2015.)

The book under review, is:
Wirtén, Eva Hemmungs. Making Marie Curie: Intellectual Property and Celebrity Culture in an Age of Information. Chicago: University of Chicago Press, 2015.

A Critical Mass Need to Be Motivated by the Telos of a Practice

(p. 227) The fact that some people are led into a practice in pursuit of goals that are external to the practice– money, fame, or what have you– need pose no threat to the integrity of the practice itself. So long as those goals do not penetrate the practice at all levels, those in pursuit of external goals will eventually drop out or be left behind or change their goals or be discredited by those in pursuit of a practice’s proper goals. However, if external goals do penetrate the practice at all levels, it becomes vulnerable to corruption. Practices are always developing and changing, and the direction that development takes will be determined by participants in the practice. Good practices encourage wise practitioners who in turn will care for the future of the practice.

Source:
Schwartz, Barry, and Kenneth Sharpe. Practical Wisdom: The Right Way to Do the Right Thing. New York: Riverhead Books, 2010.

A somewhat similar point is made in:
Diamond, Arthur M., Jr. “How Institutional Incentives and Constraints Affect the Progress of Science.” Prometheus 26, no. 3 (Sept. 2008): 231-239.

Congress Appropriates Funds to Test Concussion Theory of Rain

(p. 190) the first century A.D., when the Greek moralist Plutarch came up with the notion that rain followed military battles. Napoleon believed as much and fired cannons and guns at the sky to muddy up the ground between him and his attackers. Civil War veterans who wallowed in cold slop believed that ceaseless, close-range artillery fire had opened up the skies. In the late 1890s, as the first nesters started to dig their toeholds on the dry side of the one hundredth meridian, Congress had appropriated money to test the concussion theory in Texas. The tests were done by a man named Dyrenforth. He tried mightily, with government auditors looking over (p. 191) his shoulder, but Dyrenforth could not force a drop from the hot skies of Texas. From then on, he was called “Dry-Henceforth.”
Government-sponsored failure didn’t stop others from trying. A man who called himself “the moisture accelerator,” Charles M. Hatfield, roamed the plains around the turn of the century. A Colonel Sanders of rainmaking, Hatfield had a secret mixture of ingredients that could be sent to the sky by machine. In the age before the widespread use of the telephone, it was hard to catch up with the moisture accelerator after he had fleeced a town and moved on.

Source:
Egan, Timothy. The Worst Hard Time: The Untold Story of Those Who Survived the Great American Dust Bowl. Boston: Houghton Mifflin, 2006.

Einthoven Tried to Share Prize Money with His Assistant

(p. 194) One event that occurred after Einthoven received the Nobel Prize in Physiology or Medicine in 1924 speaks volumes about his integrity. In the construction of his string galvanometer and laboratory experiments over many years, Einthoven was rather clumsy with his hands and relied very much on the collaboration of his chief assistant K. F. L. van der Woerdt. Years later, when he received the $40,000 in Nobel Prize money, Einthoven wished to share it with his assistant but soon learned that the man had died. He sought out the man’s two surviving sisters, who were living in genteel poverty in a kind of almshouse. He journeyed there by train and gave them half of the award money.

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

Nasaw Claims Carnegie Believed in Importance of Basic Scientific Research

But notice that the two main examples of what Carnegie himself chose to fund (the Wilson Observatory and the yacht to collect geophysical data), were empirically oriented, not theoretically oriented.

(p. 480) Carnegie was, as Harvard President James Bryant Conant would comment in 1935 on the centenary of his birth, “more than a generation ahead of most business men of this country [in understanding] the importance of science to industry.” He recognized far better than his peers how vital basic scientific research was to the applied research that industry fed off. George Ellery Hale, an astronomer and astrophysicist, later to be the chief architect of the National Research Council, was astounded when he learned of Carnegie’s commitment to pure research. “The provision of a large endowment solely for scientific research seemed almost too good to be true…. Knowing as I did the difficulties of obtaining money for this purpose and (p. 481) devoted as I was to research rather than teaching, I could appreciate some of the possibilities of such an endowment.” Hale applied for funds to build an observatory on Mount Wilson in California, and got what he asked for. It would take until 1909 to build and install a 60-inch reflecting telescope in the observatory; in 1917, a second 100-inch telescope, the largest in the world, was added.

The Mount Wilson Observatory– and the work of its astronomers and astrophysicists– was only one of the projects funded in the early years of the new institution. Another, of which Carnegie was equally proud, was the outfitting of the Carnegie, an oceangoing yacht with auxiliary engine, built of wood and bronze so that it could collect geophysical data without the errors inflicted on compass readings by iron and steel. The ship was launched in 1909; by 1911, Carnegie could claim that the scientists on board had already been able to correct several significant errors on navigational maps.

Source:
Nasaw, David. Andrew Carnegie. New York: Penguin Press, 2006.
(Note: ellipsis, and italics, in original.)
(Note: the pagination of the hardback and paperback editions of Nasaw’s book are the same.)

Would Science Progress Faster If It Were Less Academic and More Entrepreneurial?

BootstrapGeologistBK2014-01-18.jpg

Source of caption and photo: online version of the NYT article quoted and cited below.

(p. D5) There is Big Science, defined as science that gets the big bucks. There is tried and true science, which, from an adventurous dissident’s point of view, is boldly going where others have gone before but extending the prevailing knowledge by a couple of decimal places (a safe approach for dissertation writers and grant seekers).

Then there is bootstrap science, personified by Gene Shinn, who retired in 2006 after 31 years with the United States Geological Survey and 15 years with a research arm of the Shell Oil Company.
. . .
Without a Ph.D. and often without much financing, Mr. Shinn published more than 120 peer-reviewed papers that helped change many experts’ views on subjects like how coral reefs expand and the underwater formation of limestone. Some of his papers, at odds with established scientific views, were initially rejected, only to be seen later as visionary.
His bootstrap ingredients included boundless curiosity, big ideas — “gee-whiz science,” he calls it — persistence, a sure hand at underwater demolition (dynamite was comparatively easy to come by in those remarkably innocent days) and versatility at improvising core-sampling equipment on tight budgets. The ability to enlist the talents of other scientists, many with doctorates, who shared his love of hands-on field work and his impatience with official rules and permits added to the mix.

For the full review, see:
MICHAEL POLLAK. “BOOKS; Science on His Own Terms.” The New York Times (Tues., November 5, 2013): D5.
(Note: the online version of the review has the date November 4, 2013.)

Book under review:
Shinn, Eugene A. Bootstrap Geologist: My Life in Science. Gainesville, FL: University Press of Florida, 2013.

David Koch Institute for Integrative Cancer Research

LangerRobertResearchLab2013-01-12.jpg “Dr. Robert Langer’s research lab is at the forefront of moving academic discoveries into the marketplace.” Source of caption and photo: online version of the NYT article quoted and cited below.

(p. 1) HOW do you take particles in a test tube, or components in a tiny chip, and turn them into a $100 million company?

Dr. Robert Langer, 64, knows how. Since the 1980s, his Langer Lab at the Massachusetts Institute of Technology has spun out companies whose products treat cancer, diabetes, heart disease and schizophrenia, among other diseases, and even thicken hair.
The Langer Lab is on the front lines of turning discoveries made in the lab into a range of drugs and drug delivery systems. Without this kind of technology transfer, the thinking goes, scientific discoveries might well sit on the shelf, stifling innovation.
A chemical engineer by training, Dr. Langer has helped start 25 companies and has 811 patents, issued or pending, to his name. More than 250 companies have licensed or sublicensed Langer Lab patents.
Polaris Venture Partners, a Boston venture capital firm, has invested $220 million in 18 Langer Lab-inspired businesses. Combined, these businesses have improved the health of many millions of people, says Terry McGuire, co-founder of Polaris.
. . .
(p. 7) Operating from the sixth floor of the David H. Koch Institute for Integrative Cancer Research on the M.I.T. campus in Cambridge, Mass., Dr. Langer’s lab has a research budget of more than $10 million for 2012, coming mostly from federal sources.
. . .
David H. Koch, executive vice president of Koch Industries, the conglomerate based in Wichita, Kan., wrote in an e-mail that “innovation and education have long fueled the world’s most powerful economies, so I can’t think of a better or more natural synergy than the one between academia and industry.” Mr. Koch endowed Dr. Langer’s professorship at M.I.T. and is a graduate of the university.

For the full story, see:
HANNAH SELIGSON. “Hatching Ideas, and Companies, by the Dozens at M.I.T.” The New York Times, SundayBusiness Section (Sun., November 25, 2012): 1 & 7.
(Note: ellipses added.)
(Note: the online version of the story has the date November 24, 2012.)

Big Science Done Privately at Great Risk

ChasingVenusBK2012-09-01.jpg

Source of book image: http://t0.gstatic.com/images?q=tbn:ANd9GcQPLdrVlC1FT3ojxyxWJLq55AeAs87pw_Bw6ks1ugFnkcI_DBa_1w&t=1

(p. 23) Next time you find yourself grousing when the passenger in front reclines his seat a smidge too far, consider the astronomers of the Enlightenment. In 1761 and 1769, dozens and dozens of stargazers traveled thousands of miserable miles to observe a rare and awesome celestial phenomenon. They went by sailing ship and open dinghy, by carriage, by sledge and on foot. They endured discomfort that in our own flabby century would generate years of litigation. And they did it all for science: the men in powdered wigs and knee britches were determined to measure the transit of Venus.
. . .
The British astronomer Edmond Halley had realized that precise measurement of a transit might give astronomers armed with a clock and a telescope the data they needed to calculate how far Earth is from the Sun. With that distance in hand, they could work out the actual size of the solar system, the great astronomical problem of the era. The catch was that it would take multiple measurements from carefully chosen locations all over the Northern and Southern Hemispheres. But that was somebody else’s problem. Halley knew he wouldn’t live to see the transit of 1761.
That challenge fell to the French astronomer Joseph-Nicolas Delisle, who managed to energize and rally his colleagues in the years leading up to the transit, then coordinate the enormous effort that would ultimately involve scientists and adventurers from France, Britain, Russia, Germany, the Netherlands, Italy, Sweden and the American colonies. When you think about how hard it is to arrange a simple dinner with a few friends who live in the same city and use the same language when e-mailing, it’s enough to take your breath away.
. . .
Sea travel was so risky in 1761 that observers took separate ships to the same destination to increase the chances some of them would make it alive. The Seven Years’ War was on, and getting caught in the cross-fire was a constant concern. One French scientist carried a passport arranged by the Royal Society in London advising the British military “not to molest his person or Effects upon any account.” Others were shelled by the French or caught in border troubles with the Russians. An observer en route to Tobolsk, in Siberia, found himself floating in ice up to his waist when his carriage fell through the frozen river they were traveling in lieu of a road. He made it to his destination. Another, heading toward eastern Finland via the iced-over Gulf of Bothnia, was repeatedly catapulted out of his sledge as the runners caught on the crests of frozen waves. He made it too.

For the full review, see:
JoANN C. GUTIN. “Masters of the Universe.” The New York Times Book Review (Sun., May 20, 2012): 19.
(Note: ellipses added.)
(Note: the online version of the review has the date May 18, 2012.)

The full reference for the book under review, is:
Wulf, Andrea. Chasing Venus: The Race to Measure the Heavens. New York: Alfred A. Knopf, 2012.

ApparatusTransitVenus2012-09-01.jpg Source of image: online version of the NYT article quoted and cited above.

Michael Milken Provided “Access to Capital for Growing Companies”

(p. 163) Although [high yield] . . . bonds eventually became known as a favored tool for leveraged–buyout specialists in the 1980s, Mike’s original goal was different. He wanted to provide access to capital for growing companies that needed financing to expand and create jobs. Most of these companies lacked the investment grade” bond ratings required before the big financial institutions would back them. Mike knew that non-investment-grade (a k a “junk”) companies create virtually all new jobs, and he believed that helping these companies grow strengthened the American economy and created good jobs for American workers.
It was by studying credit history at Berkeley in the 1960s that Mike developed his first great insight. He found that while there could be significant risk in any one high-yield bond, a carefully constructed portfolio of these assets produced a consistently better return over the long run than supposedly “safe” investment-grade debt. This was proved during the two decades of the 1970s and ’80s when returns on high-yield bonds topped all other asset classes. Mike saw a great opportunity when he realized that the perception of default risk far exceeded the reality. In fact, these bonds had a surprisingly low-risk profile when adjusted for the potential returns.
After twenty years of superior gains, the high-yield bond market finally fell in 1990. Actually, it didn’t fall–it was pushed by unwise government regulation that forced institutions to sell their bonds. The dip only lasted a year, however, with the market roaring back 46 percent in 1991.
Mike’s competitors–Goldman Sachs, Morgan Stanley, and Credit Suisse First Boston, the old oligopolies of the syndication (p. 164) business–labeled them “junk bonds” to disparage Mike’s brainchild. He was not a member of their white-shoe club and they were not going to take his act lying down.

Source:
Wyly, Sam. 1,000 Dollars and an Idea: Entrepreneur to Billionaire. New York: Newmarket Press, 2008.
(Note: bracketed words and ellipsis added.)