Oleksii
V. Samoilenko, Cand. Sc. (Eng.), Assoc. Prof.
National
Technical University of Ukraine "Igor Sikorsky Kyiv Polytechnic
Institute"
The Issue of Authorship of Inventions,
Scientific Ideas
and Discoveries in the Fight Against the Academic Plagiarism
Existing software and online
services for the fight against academic plagiarism able to improve the
situation with the identification of coarse, "clumsy" plagiarism. This is such plagiarism, where there are direct text
or graphic borrowings. However,
the issue of illegitimate borrowing of another scientific ideas remains
unresolved. And here is a trap hidden in which a conscientious scientist can
get.
The fact is that scientists
can get similar results and do identical conclusions, at a certain level of
development of science and technology, even working in one direction and
independently of each other.
The history of science and
technology knows many examples when the same idea appeared in different
scientists and inventors, sometimes separated by state borders, language
barriers, and even in different parts of the world. Here are a few examples.
It is known that a fully disassemble
frame beehive – the basis of modern rational beekeeping – was invented by the
Ukrainian beekeeper Petro I. Prokopovich
in 1814. The structure of the "vtulkovy (intercalary)"
(as he called the inventor) beehive was like a bookcase, into which frames were
inserted from the side [2, page 366]. But
the half- disassemble "bookish" beehive (it was revealed as a book
installed vertically) of Swiss naturalist François
Huber was known since 1789 [2, page 189]. And
after that the American Priest and amateur beekeeper Lorenzo L. Langstroth in 1851 proposed
the structure of a frame beehive, in which frames are inserted into the beehive
body from above and keep on the lateral ledges. This structure is still used
today as a base (with minor changes). It should be noted that even Soviet
historical science recognized that L. Langstroth
invented his beehive, although much later, but still independently of P. Prokopovich [2, page 236].
European (and later North
American) criminologists was used "Bertillonage"
(or "Anthropometry") to identify the criminals prior to the
application of fingerprinting. The essence was that the combination of
measurements of certain parts of the human body is unique and makes it possible
to uniquely identify the criminals. It is generally
accepted that a Paris police office worker
Alfons Bertillon
founded this system since 1879. However, as early as 1860, the chief of the Belgian
prison M. J. Stevens based
on the teachings of Belgian astronomer, mathematician, statistician and
sociologist Lambert-Adolph-Jacques Quetelet, suggested (though unsuccessfully) to measure
the circumference of the head, the height, foot size and some other parts of
the body of adult criminals who did not have significant deviations from norm. It was believed that the obtained measurements could
not be concealed by any disguise, makeup, etc. [1, page 59].
Continuing the theme of
criminology, it should be noted that the idea of using fingerprints of
papillary lines for identity identification also occurred to several people,
practically simultaneously and independently of each other. It is believed that modern fingerprinting is based on
the teachings of the British ICS officer William
James Herschel, 2nd Baronet Hershel, who in 1877 put forward a hypothesis
about invariably papillary lines over time. However, all the glory went to Edward
Richard Henry, the chief of police in Bengal. At the same time, somehow forget
the name of Argentine police officer Juan
Vucetich, who developed the ten-finger scheme in
1891, and the British natural philosopher Francis
Galton, who mathematically substantiated the
impossibility of a fully coincidence of fingerprints from different people. Well, the first of the known fingerprint uses for identification
of identity belongs to the ancient Chinese, who in the 6…7th centuries AD signed
some documents with a palm print (including fingerprint) [1, page 32].
The history of the invention
of the laser contains several dozen names of scientists. The first laser, more
precisely, a maser (based on ammonia molecules) was created independently of
each other by scientists Nikolay G. Basov, Alexander M. Prokhorov,
Charles H. Townes,
James P. Gordon, Herbert J. Zeiger, Koichi Shimoda and Tien Chuan Wang. Subsequently, the first three scientists were
deservedly awarded the Nobel Prize in Physics for 1964. However,
Albert Einstein presented the concept
of stimulated emission, on which the action of a laser is based, in 1916.
The history of the radio
also contains almost a hundred names of scientists, inventors, or even simply
enthusiasts, each of whom made his original contribution, often independently
of others. It is noteworthy that American inventor of Italian origin Guillermo Marconi was awarded the Nobel
Prize not for invention, but for commercial using of radio. And the first
radiogram of Russian scientist Alexander S. Popov was "Henry Hertz" in tribute to the
primacy of the German scientist.
There are many similar
examples. Therefore, the conceptual triad "AUTHORSHIP – PRIORITY – THE IDEA
ESSENCE" should be considered fundamental for identifying cases of
improper borrowing of scientific ideas.
Now we are not talking about
an automated verification of the use of other people's scientific ideas,
because then immediately there is a problem of artificial intelligence, which
is beyond the scope of this study. And how irrefutably can one prove that
scientific results are "stolen", and not obtained independently of
other scientists? Do not check the same scientists on the "lie detector"?
We must not forget that
there is the so-called "Stigler's law on eponymy" in science, in the
countries of the former USSR, better known as the "Arnold law" (Vladimir I. Arnold was a Soviet and
Russian mathematician). This empirical observation was described by the
American scientist Stephen M. Stigler
in 1980. The essence of the law is "scientific discoveries
are not named after their discoverers." It
is noteworthy that the scientist himself considers the pioneer of the law of
the American sociologist Robert K. Merton
(R. Merton himself used the term "Matthew effect"). That is, the Stigler's law can be applied to himself.
The prerequisite for the
appearance of Stigler's law is the fact that often discoveries are named after
a scientist who only drew general attention to the previously not popular idea
or principle. Most often this person is not a pioneer. Some scientific theories
received nominal names much later than their first description. At that the names
are fixed, even despite the general agreement that they are historically inaccurate.
If several scientists make discoveries simultaneously and even independently of
each other, the high authority of one scientist can become a decisive factor in
attributing to him one name of the initial general discovery.
It is necessary to take into account such a seemingly paradoxical situation.
In modern science there is
such a system. Only those scientific results are placed in the public domain,
which were supposed to open the use initially. Usually, these are studies
carried out at the expense of state orders, university funds or research
institutions, grants, etc. But the publication of the results obtained, for
example, under a contract with a commercial entity, can often be a moratorium
lasting even a few years.
And indeed it seems that
scientists are in no hurry to immediately share their results. They work, so to speak, on personal, university,
national or even regional success. They belong to a competing scientific
schools, live in different, sometimes conflicting countries, with ever
successive governments. Therefore, it is not necessary to talk about
solidarity and openness in the scientific community. However, this circumstance
makes impossible the "worldwide conspiracy of scientists".
Used information from Wikipedia – the free encyclopedia, as well as from other
public sources.
References:
1. Thorwald,
Jürgen. Das Jahrhundert der Detektive: Weg und Abenteuer der Kriminalistik.
– Drömer, 1965 – 566 s.
2. Âèðîáíè÷à
åíöèêëîïåä³ÿ áäæ³ëüíèöòâà.
– Ê.: Óðîæàé, 1966, – 499 ñ.