
Origins 11(1):5-7 (1984).
EDITORIAL
On that fateful day of November 22, 1963, I was placidly sitting in
a classroom listening to my professor of physical geology expound upon the wonders of our
earth. Suddenly the classroom door opened, the chairman of the department walked in and
conferred briefly with my professor who then informed us that the President of the United
States had been shot. Class was dismissed. Within a few minutes I was listening to the
news as reporters tried to piece together the disjointed bits of information associated
with this terrible incident. President John F. Kennedy was pronounced dead, and the
suspected assassin, Lee Harvey Oswald, was arrested in a theater and charged with the
assassination of the President of the United States.
One aspect of this incident was especially intriguing. I was already
aware of the belief in the inexorable 20-year cycle of United States presidents dying
while in office. The evidence appeared quite convincing to some, and President Kennedy's
death added one more cycle to this series. Why has every United States president who has
been elected on a 20-year cycle since 1840 died while in office? The cycle is as follows:
Harrison Elected 1840 Died while in office Lincoln Elected 1860 Died while in office Garfield Elected 1880 Died while in office McKinley Elected 1900 Died while in office Harding Elected 1920 Died while in office Roosevelt Elected 1940 Died while in office Kennedy Elected 1960 Died while in office [Reagan Elected 1980 ------------------- ]
On a superficial level, this series appears to be beyond the realm
of ordinary coincidences, but upon further investigation, I found that the argument is
much less convincing than it first seems.
For instance:
a) The cycle does not work prior to 1840. Jefferson was elected in 1800
but did not die while in office; neither did Monroe who was elected in 1820.
b) It is not always the president's first term of office that qualifies
him for the 20-year cycle. McKinley qualified by his second term, and Roosevelt by his
third.
c) The precision of the cycle seems weak. Dying while in office does
not necessarily take place during the presidential term that qualifies for the 20-year
cycle. Lincoln qualifies by his first term of office, but he died during his second term
in office. Roosevelt did not die until his fourth term in office.
d) One president who does not fit at all into the cycle also died while
in office. Elected in 1848, Taylor died apparently of exposure the following year.
e) It may not be such an unusual event for a president to die while in
office, because presidents tend to be men of maturity and thus more subject to the health
problems of old age. Also, they are prize targets for assassins. Four of the seven
presidents in this cycle (Lincoln, Garfield, McKinley, and Kennedy) were assassinated.
If objections a, b, and c above are
considered to be valid, we find that only 4 of 9 United States presidents qualify for the
proposed 20-year cycle. Objection d suggests a further weakness in the so-called
cycle, since a president died while in office out of the cycle. Scrutiny weakens the
evidence, and I remain completely unconvinced that there is any validity to this cycle
although at first it appears quite striking.
Appearances can be deceiving and, combined with other factors that
influence our decisions, can lead to disastrous results. Scholarly activities are not
immune from this pitfall. One of the more outstanding examples in the history of science
is the so-called discovery of N-rays by the French physicist Blondlot. In 1902, while
investigating the question of the polarization of X-rays, Blondlot noticed that a spark
seemed to be brighter under the influence of a new kind of radiation which appeared to
behave differently from the normal X-rays. He named these new rays "N-rays" in
honor of his university and city, Nimes, France. His entire original system of
identification and analysis was based upon his observations of the brighter appearance of
the spark, and not on its length which could have been more objectively evaluated.
Blondlot was not the only person taken in by appearances. The effect of N-rays were
reported "by at least forty people and analyzed in some 300 papers by 100 scientists
and medical doctors between 1903 and 1906" (Nye 1980, p. 125). These rays were found
to emanate from animal muscles, the digestion of albuminoids and by plants in the dark. It
was also found that intellectual activity increased the production of N-rays by the
nervous system. This new radiation improved visual perception and was used to explain
spiritualistic phenomena. The study of N-rays soon became "a minor industry"
(Broad and Wade 1982, p. 113). Furthermore in 1904 the French Academy of Sciences, the
official spokesmen for French scientists, bestowed its coveted Le Conte award on Blondlot.
All was not well, however. Several scientists were unable to reproduce
the supposed results. These skeptical individuals were usually accused of having eyes
insensitive to the increase in spark intensity and other apparent luminous effects of the
rays. Soon a growing number of scientists became doubtful. Their doubts were enhanced in
1904 by R. W. Wood of Johns Hopkins University who, in the role of a sleuth, visited the
laboratories at Nancy to investigate the authenticity of the rays. While Blondlot was
demonstrating the spectral qualities of the rays in a darkened room, Wood surreptitiously
removed an aluminum prism from the spectroscope. Blondlot reported identical results when
the prism was removed (Wood 1904). During his visit Wood also found other unexplainable
results, showing that the data could be readily contrived. This incident, which was
reported in English, French, and German science journals, did not immediately end the
defense in support of N-rays. Research and discussion on the apparent effects continued
for several years, although interest soon dwindled. At present the so-called N-rays have
only historical interest.
Important lessons can be learned from both the apparent cyclic pattern
of United States presidents dying while in office and from the purported N-rays. Man is
obviously prone to draw conclusions based upon his superficial observations or those of
others. One of the most important lessons to be learned is to be less gullible. The remedy
is to be more thorough before drawing conclusions. In the study of origins where
authentication of past events is unusually difficult, thoroughness is essential.
REFERENCES
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