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THE NEGOTIATION OF IDENTITY AND STATUS THROUGH INVENTIONS IN
18TH CENTURY RUSSIAN SCIENTIFIC ACADEMIES
Arizona State University
HST 280
Introduction
Historical context of 18th century Russian scientific academies and invention culture
Stressing the efficient systematically continuation of the works brought by Russian
scientists in the 17th century, one can speak about the 18th century as the critical stage for the
growth of the scientific and technical potential of Russia. Earlier, Russia lacked proper scientific
structures, and it continued to remain backward even in building its own science and
technologies. Wang (2020) says to bring Russia back into the progressive forefront and to level
with the Western countries, Peter the Great established the Russian Academy of Sciences in St.
Petersburg in 1724. Russia’s academy was supposed to be modeled after academies in Western
European states, such as the Royal Society in Great Britain or the Académie des Sciences in
France, but was aimed at the application and collective management of scholarly research,
including the spheres of mathematics and physics, geography and history, as well as the language
of Russia.
At the early stage of the academy’s formation, many of the foreign scholars were
employed to teach Russian students and also to develop new ideas. For example, the Swiss
mathematician Leonhard Euler relocated to the St. Petersburg Academy in 1727, and through
almost 30 years of his professional experience, he developed useful findings in calculus and
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graph theory (Podlubny, 2015). It also supported scientific exploration such as the expeditional
voyage of Vitus Bering, 1725–1730, concerned with the mapping of the Northeast passage with
such new geographical discovery. The academy was to strengthen the training of the first
generation of Russian scientific and engineering personnel of Russian origin. Among them it is
necessary to name Mikhail Lomonosov, who is considered to be the first researcher in the field
of chemistry, optics, meteorology, and poetry, and the author of the first usable steam engine in
Russia, Ivan Polzunov (Perrie & Pavlov, 2016).
Another protagonist of the state support of the gain of the new scientific knowledge
mainly for the sake of profit was Catherine II, the ruler of Russia in 1762–1796. She served as a
sponsor and managed one hundred and fifty and more new scientific explorations of the empire’s
frontier territories, the Moscow University, the Free Economic Society for the reform of
agriculture and mining, and the Russian Academy of Art for the study of architecture and
antiquity. Catherine initiated the first learned scientific journal in Russia, Novi Commentarii at
St. Petersburg, where original articles on new discoveries in the fields of medicine, metallurgical
industries, optics, and, indeed, nature were published. Wang (2020) adds that this not only
disseminates research products to scholars but also provides inventors a means to obtain state
privileges for new inventions. Wang (2020) concludes that Russia evinced considerable progress
in chemistry, mining science, and industrial developments, as well as in finding the medical
remedy against smallpox during the reign of Catherine.
Imperial patronage in 18th century Russian academies and inventors' status
Tsar's role in 18th century Russian scientific achievements
This process was most intensive during the reign of Peter the Great, 1682–1725, who
continued the mother’s work and is credited with having overhauled Russian science and
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technology. As a pivot towards the evolution of his kingdom, Peter hired the foreign expertise to
teach local people and establish educational institutions, factories, and other installations (Witt,
2019). Witt (2019) also took young, talented Russians to study sciences and engineering in other
countries. Peter founded the Russian Academy of Sciences in 1724 as a way of coordinating the
research and acting as a consultant to the state, according to Graham (1993). His successors also
continued this tradition of the state support of Science and Technology in the eighteenth century.
Russia remained in position of Western Europe; however, numerous achievements were
obtained in many areas that were directly supported by the sou sou of the tsarist authorities. In
the sphere of geology, Lomonosov worked on the topic of the origin of minerals and rocks and
the kinetic concept of heat. Information detailing the coastal areas of the Russian Arctic was
compiled by Gerhard Müller in many areas. The Imperial Academy of Arts helped to develop
sciences with outstanding mathematician Leonhard Euler and cartographer Joseph De L’Isle
(Witt, 2019).
Measurable state investment also gave results in the case of metallurgy and mining. As
stated by Poe, in 2001 Peter I established technical schools for specialists and factories for
enhancing the efficiency of production. Vasily Tatishchev founded the Tula ironworks and
nonferrous metals mining; he also published a pamphlet on the mining of metals and the
smelting process. During the middle of the 18th century, Russia was among the five leading
producers of iron, copper, and salt internationally (Cracraft, 2004). The Urals region was more or
less well explored, and the potential of the area for mineral wealth was well evaluated.
According to WiIt (2019), it also targeted medical and public health sciences and
reforms, which also took a great portion of state funding. A naval hospital was founded in
Cronstadt in 1715, and the medical chancellery as a means of control of physicians (in 1721)
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(Cracraft, 2004). Others were acquired and used either as advisors or trainers, as the case
preferred with other experts like Daniel Bernoulli and Herman Boerhaave. Huang (2020) adds
that it is crucial to understand that self-isolation and measures against disease prevention are
important for saving the state's interest. During Catherine the Great's rule, there were Russians
who used to go to foreign countries in order to study, and the medical science was applied to the
upper classes of society.
Quite the same, the Russian military required scientific support to utilize the recent
European developments in improving the military forces (Fuller, 1990). Technical schools were
founded with the primary objective of training engineers and officers of artillery. In Peter’s time,
modern methods such as trigonometric calculations were included to increase the efficiency of
navigation, map reading, and naval battles (Poe, 2001). Tula captured Gunsmith Nathan
Demidov and introduced rifle designs that were useful during Russia's expansionist war with the
Ottoman Empire and Persia. While on the one hand, it is right to talk of the support of the
tsarists, Panin (2014) opines that friendship circles among scholars also contributed to the growth
of Russian science in equal measure. Panin (2014) concludes that such organization structures as
learned societies and independent research initiatives added more credibility to state institutions
and provided for further acquisition of knowledge from the West. Still, it is possible to identify
several unique innovations that Russian academics developed and adapted for US needs mostly.
The 18th century Russian inventors vied intensely for imperial support
The eighteenth century is therefore recognized as the period of enlightenment and
Europeanization of Russia under Peter the Great’s and his successors. While the Western
European nations competed with their hi-tech inventions, the Russian inventors played an active
role in the emergence of indigenous industries and strengthening of the state. This led to
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competition among inventors with a view of attracting the attention of the Russian monarchy
towards funding their projects.
One of them was the military industry, as Russia fought many wars with Ottoman Turkey
and other enemies in the 18th century. The name of Ivan Polzunov has been known because of
constructing the first Russian steam engine in 1766 to paddle a cannon barge in the Yayik River.
Though it had flaws, the engine demonstrated the strength of Russia as a mechanical engineering
country; therefore, the state did not stop supporting the development of steam engines for the
purpose of military and industrial purposes (Portnov, 2021). The other inventors also focused on
guns; this was illustrated by Andrey Nartov, who came up with screw lathes to better the making
of muskets. They contributed to arming more troops with better equipment and therefore
assisting Russia’s empire to yield more power.
Another field that widely developed, receiving patronage from the Russian throne during
this period, was the field of textile industry. According to the changes on the Westernization
program, Empress Elizabeth funded Ivan Kulibin to build spinning wheels for the textual
industry mechanical modernization. Later in 1790, Alexander Sapozhnikov received a patent for
a flax spinning frame, which brought quite a change to the linen industry. These projects
contributed to the reduction of imports of foreign textiles and the growth of domestic initiatives
under the state’s guidance (Bugrov, 2016). Kulibin and Sapozhnikov experience underlines that
in the 18th century Russian inventors competed for the recognition of innovative talent and state
sponsorship.
Apart from the industry, the Russian inventors were also targeting transport and
construction to enhance control over the vast regions of the fast-expanding Russian Empire. Here
also several inventors vied for monarchical patronage and support: Mikhail Koshkin sought the
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patronage and support of Tsar Alexander I to build the first Russian steamship in 1815, as stated
by Volodarsky (2011). Huang (2016) state that such transport innovations facilitated internal
communication, demazure, commerce, and military movement. The concentration of the
initiative and decision-making in the autocratic Russian government and its leadership in
industrialization have amplified the competitive pressures that inventors felt so that they could
prove worthy of the state grants. Technological modernization was instrumental to the
augmentation of Russian imperial power from the period of Peter the Great; therefore, inventors
attempted to reveal their solutions’ military utility to get royal approval. By the early of the
nineteenth century, such a trend developed the peculiar Russian type of innovations connected to
the army, textile industry, and other potential spheres that were viewed as strategic by the state.
Patronage shaped 18th century Russian academics' professional trajectories significantly
Huang's (2020) studies say that the research undertaken in this paper demonstrates the
fact that in the 18th century Russian academics had patrons who regulated their careers. In the
earliest stages of monarchy, particularly in the period of Peter the Great and Catherine the Great,
education, science, and culture were promoted. This patronage was the appointment of some of
the most preferred scholars and academics in the state, funding for their projects and expeditions,
and other support that boosted the performance of the scholars and academics in the state.
Among them, the Imperial Academy of Sciences, which was founded in St. Petersburg in
1724 by Peter the Great. Wang (2019) says the Academy was under the heavy patronage of the
monarchy, which realized the role of this institution for the enlightenment of the Russian state
through new innovations in science and technique. Its first president was the mathematician
Leonhard Euler, one of the European scholars who moved to Russia thanks to the offer of the
royal salaries and bonuses (Aleksashina, 2021). The focus of efforts made by members of the
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Academy was state-oriented science, which was necessary for the construction of the required
sectors like mining, metallurgy, and naval science (Huang, 2016). With such privileged imperial
support and direction, the Academy reached the high level of Russian academic education all
through the 18th century. The monarch appointed scholars and professors who had access to
resources, money, and other advantages for their work.
The same can be said about Russian scholars who made their journeys at the state’s
expense, for example, the historian Gerhard Müller, who spent twelve years studying Siberia, or
the naturalist Peter Simon Pallas, who toured southern Russia and Central Asia. Nonetheless, the
traveling scholars conditioned their empiricism to such state interests as surveys of resources or
geographical knowledge, the latter of which perpetuated Russian imperialism and their own
employment (Ponomareva & Pivovarov, 2020). Some of them were able to transform their
sponsored adventures into profitable publishing businesses in Europe, and they acquired
European academic status with imperial Russian assistance.
The state expected royal loyalty in return for such privileged support of scholars and
academics. For anyone considered not to be wholeheartedly devoted to state service, there was
the risk of losing one’s privileged post and subsidies received. For instance, dismissed
astronomist-mathematician Franz Aepinus was incapable of performing an adequate number of
useful researches for Russian industry and naval science in St. Petersburg Academy during 1765
(Alekseeva, 2022). This informed everyone that your future as an academic depends on the
ability to provide for the state through work. However, patronage could also be granted in other
settings than the state, for example, in the institution of the Academy of Sciences. According to
history, Russian literati and academics followed Catherine the Great’s imperial favour in order to
support her goal to progress the Russian arts and culture. This made it possible for many poets,
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including Gavriil Derzhavin and Denis Fonvizin, to work in her court, which shows that their
works that mocked nobility could not be considered as rebellious (Zhivov, 2015). This
demonstrated how Catherine nurtured patronage to promote academics that, in retrospect, could
not serve the state’s directed functionalism of scientific application and development for Russia
but would help foster a Russian cultural front.
On the other hand, historians like Gerhard Müller, who was contracted by Catherine to
write Russian history, could access state papers and get excellent terms of getting published in
Europe and make a fortune; thus, he started his academic career during this time with the
sponsorship of the Empress (Raeff, 2015). For this reason, Catherine served the scholars
studying Russia’s cultural past and identity by supporting their career and agenda for Russian
literature and other arts, not the state utilitarianism that she had in her vision for the country.
National identity in 18th century Russian scientific contributions
Tensions between native and foreign 18th century Russian academy members
Founded in 1724 by Peter the Great, the Academy possesses the aim of introducing the
Russian state to the world of enlightenment with science and education. Huang (2019) found that
it was able to attract talented scientists and scholars from every part of Europe, including Russian
academicians. During the initial levels of the game, the roles of the two characters appeared to be
associated with working together. Concerning the field of mathematics and physics, the
distinguished foreign members were Leonhard Euler and Daniel Bernoulli, among others. They
took in a new generation of Russian students and taught them the western techniques and put
them in the academy. Other native Russian academicians, for instance, Mikhail Lomonosov, also
did primary work as well as advocated for the development of home science. Nevertheless, by
the mid-1700s, some weakness began to emerge, originating from the background, goals, and
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personalities of native and foreign scholars. To many conservatives, the foreign scholars were a
group of corrupt ‘Westernizers’ that had to destabilize the Russians and their traditions. They
accused foreigners of not respecting Russian traditions and practices as well as not being
believers in Orthodox Christianity. Some native academicians also complained that the Academy
was getting too caught up in the theoretical science rather than the practical knowledge to
improve industries, quality of living, etc., and this argument did not find support from many of
the foreign members.
Of course, when individuals took prejudices and were animosities, the conflict was
gained even higher. Indeed, Lomonosov’s sharp and rather defiant writings against Euler and
other members of the Petersburg Academy were largely based on national rivalry. When
Lomonosov died a bitter man in 1765, dissension increased between his disciples in the
Academy and newer western European students that flocked to the Academy because of its status
and Imperial backing. Some of them stemmed from discrimination in appointment to academic
posts, in the award of prizes where foreign academics stood to gain most, and in pensions. It
grew during Catherine the Great’s rule, as the monumental Royal Palace attests to. Despite the
fact that she was a great sponsor of the Academy and even invited such famous personalities as
Voltaire to Russia, she refuted the claims of native scholars on discrimination. She also made the
traditional Russians annoyed with her anticlerical opinions and the secular reforms she
introduced into the country. This situation informed the fact that most of the indigenous scholars
of merit left the Academy. Those continued to gradually lessen typically built counter groups
against the still powerful foreign people.
At the onset of the nineteenth century, while there were continuous discourses regarding
the national preferences and priorities, the changes in the Academy offered prominent authorities
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and appreciations to the Russian professors. Some other presidents of the Academy, such as
Alexander Kunaikin, attempted to make certain amends for the previous hostilities. They sat at
the top of Russian dominance in such new areas as chemistry and biology, as well as maintaining
outstanding foreign scholars. Petrov (2019) indicates that this balanced approach has allowed the
Academy to become an effective interacting organism in the sphere of the highest scientific
cooperation on the international level. With the exception of a few pockets of anti-Western
feelings in some spheres of social relations, the process of détente contributed to the lessening of
ethnic animosity. The ethnic and national consciousness was to blame for the confrontation of
the native and foreign scholars within Russia’s leading scientific academy in particular in the
18th century, as it has been mentioned above. The two groups had always been skeptical of each
other at the onset of the war because of the difference in the ways that they led their lives.
However, the spirit of cooperation emerged above these tensions and rivalry, especially when
such people as unyielding as steels met each other and made it possible to contribute to the
development of Russian and international academic fields. The Imperial Academy was obliged
to ask a question about the balance between inclusiveness, excellence, and national interest.
The 18th century Russian inventors promoted their work internationally actively
The second half of the eighteenth century also became successful for inventors of Russia
to bring their inventions to the domestic and foreign markets. There are historical facts that prove
that since the late 19th-early 20th century, Russian innovators contributed to the dissemination of
information concerning inventions created by Russian inventors in such fields as metallurgy,
transport, and other spheres of human activity in Europe and further (Ivanov, 2021). Some of
them had noble motives while others had selfish motives; all were proud of the developments of
their country and wanted the process to be started over the foreign countries.
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For instance, the Imperial Russian Iron Works example would mean the workers of the
Imperial Russian Ironworks. With Mikhailo Markov’s leadership, ironworkers in Russia
discovered new technologies of iron, such as the steam bellows and advanced kalining forging,
that enabled the Russian Empire to be the largest iron producer than Britain in the 1790s (Petrov,
2019). Petrov (2019) adds that Markov himself has been visiting other places throughout
England, Germany, and France, where he described new inventions in the iron industry in much
detail. On his further arrival to Russia, he further attempted to embody and improve the designs
that were being imported from other countries in order to invigorate the process of production
constantly. Imperial Ironworks delivered premier rails, machinery, and weaponry, which were
soon dispatched to other European countries that lacked Russia’s industry, thus enhancing
Russia’s exterior perception as an industrial empire.
Kondraty Rynin, a famous Russian inventor of the early 1800s, is another example of a
master who tried to market inventions of aviation throughout the world. Since early childhood,
Rynin was fascinated with human flight and, as a self-taught aviator, built Russia’s initial gliders
and parachutes (Yakovlev & Ilyushin, 2017). Though he could not get much importance from the
nobility of his own country, he was able to attract the untapped aviators of the rest of Europe for
the exhibiting glider flights in Breslau and Vienna. This wave of publicity later called the
attention of the Russian military, and they bought some of Rynin’s aircraft to train their
ballooning corps. Petrov (2019) states that in the same manner, Rynin’s designs influenced
aviation pioneers such as Cayley, who played a role in transmitting new concepts such as
inherent stability and weight-shifting control.
Russia also gave the world innovators who rose to prominence in this least expected area
of immunology in the Russian Empire. Dr. Charles de Myre was the director of the Medical
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College in Saratov, and this led to the development of an academic center that provided
increased inoculation of small pox throughout the 1700s (Bartlett, 2021). De Myre supervised
campaigns of administering vaccines, the response of the provinces of the Volga River, and
every record was kept and the results disseminated to the major scientific communities through
publications. Petrov (2019) says he also learned about other doctors further progress, such as
Edward Jenner, and was in a position to introduce them in Russia to improve the health situation
in Russia. Entailing knowledge across borders, de Myre contributed to the improvement of
medical practices that minimized the effects of a dreadful disease.
Although such industries as mining, shipbuilding, car and aircraft manufacturing, or even
the creation of vaccines, and many other industries were evolving in the 18th century, Russian
scientists and engineers were not reluctant to communicate with their counterparts worldwide to
share information regarding their inventions. Whether they were motivated by a patriotism or a
desire to gain personal acclaim or propagate the benefit of the human race, their efforts to spread
and develop Russian technology overseas led to changes that helped the country become part of
the new civilization with technology, economy, and social changes. The events of the 1700s that
involve the introduction of Russo technology in the international market are also presented. An
integrated pattern of scientific advancement with reference to different cultures and streams is
conceived here when knowledge is freely exchanged, irrespective of nationalism.
Language barriers impeded 18th century Russian inventions' global dissemination
Lingual barriers have always been a factor that influenced the process of sharing
innovations and inventions because exchange of information across the language is the core of
the process. This issue can be illustrated with reference to such inventions of Russians that have
been developed in the second half of the 18th century and whose presence or absence on the
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world market is the subject of investigation. Russia during that period experienced a great boost
in inventions, and these were especially observed in the fields of chemistry, physics engineering,
and even manufacturing (Ivanov, 2019). During the first century, Russian scientists and
engineers made valuable inventions in areas of electric power, chemical industry, aviation, and a
system of mechanical industry. It is necessary to note that, occupying historians, practically none
of the invented inventions altered the world or received some acknowledgment in Russia (Liu,
2021). Nonetheless, domestic adoptions were under way in RU, which, as noted earlier, have not
been exceptional in the specified years Meanwhile, the grand reforms of this era were weakly
and seldom disseminated further at the time they emerged.
Language barriers prevented Russian inventors of the 18th century from sharing their
inventions with the rest of the world, and the country's isolated academics were unable to
exchange works with other scholars worldwide (Ivanov, 2019; Liu, 2021; Sorenson, 2017).
Ivanov (2019) adds that the majority of the articles were written in Russian, which shows that the
authors of the articles are from Russia. Despite being a language of high intellect and having the
potential to express abstract ideas, in that specific period of time, Russian had no international
standard. Science’s superiority during the same time has been considered as French, English,
German, and Latin languages in confinement (Sorenson, 2017). Individuals from Russia and
operating only individually in Russian were charged a lot of money for translation and were
limited in their choice of publishers beyond Russian territory. Scientific cooperation frameworks
that were set with and around Western European institutions could decipher a comparatively low
amount of what was published in Russian without encountering a foreign language.
It took historians only several centuries to choose to pay more heed to some of these
important inventions when the Russian technical publications of that period started to be
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translated into English and other dominant world languages. Ivan Polzunov even built the first
real working 2-cylinder steam engine in 1766, before Watts engine in Britain, that was not ever
built and did not shape the world as we know it at that time. In any case, the kind of novel steam
technology that Polzanov narrated of and the early use of in Russia was only rendered to the
English-speaking world through a translation in the 1960s, and this caused scholars to
acknowledge Russia’s early involvement in steam power engineering (Liu, 2021). The lack of a
single language in the international academic system was the reason why these Russian
inventions did not become integrated into the advances of the techno-industrial revolution in
Britain, France, Germany, and the United States. Not being able to read or write findings in a
language that could be understood by the global community and having no way of publishing
their work internationally, the Russian innovators of the 18th century were in essence working in
a bubble (Ivanov, 2019). The credit and honor for introducing various technologies, on the other
hand, was due to the fact that the foreign academics and institutes later on came up with similar
inventions by just making them known internationally through the dominating scientific
languages, or in some cases, the inventions were assumed to be the first simply because the
Russian inventions had not been brought to light.
It is undoubtedly true that the Russian inventors and institutions of the 1700s were very
innovative and have come up with inventions in electricity, engines, and manufacturing
processes years and even decades ahead of their widely attributed foreign counterparts, but
historians also affirm that the Russian inventions did not penetrate the global market, largely
because most of them were in Russian, which was a significant barrier to marketing across the
world. This is particularly the case where, when publications and communications technologies
were not functioning in some of the key global scripts like French or English, Russian inventions
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remained essentially localized in the country and rarely had modern global applications or usage
known by the public. This purpose therefore helps undergird the fact that language accessibility
and the ability to translate are critical when disseminating findings and innovations to other
countries. Ivanov (2019) conclude that this meant that the Russian academics of that time, in the
lack of basic structures for communication that would have enhanced trans-lingual translation of
creativity into technological revolution the world over, were adversely affected.
Gender dynamics in 18th century Russian academies' invention processes
Challenges for female inventors in 18th century Russian academies
In 18th-century Russia, academies of sciences and inventions were for males only and
constituted significant barriers to women seeking to invent. The female student did not receive a
formal science education, and according to social culture, women were not allowed to pursue a
technical course, which was considered to be a man’s realm. But there were those strong-minded
women who managed to overcome these adversities to come up with inventions, but they also
had the extra hurdle of patenting their inventions in a world that was largely patriarchal.
The first of these barriers was to achieve education, which was a great obstacle in the
way of women with scientific bent of mind. Such state-funded institutions as academies of
sciences or Moscow University, for example, did not accept women students at all throughout
this period. Sometimes, for aristocratic women, they could be provided with a tutor for
something as simple as physics or chemistry education, but the practicality of a lab that is needed
for invention was out of bounds (Schrand, 2021). For example, listening to the captivating
lectures in physics by the famous scientist Mikhail Lomonosov, even women were allowed to be
outside the academy only with the special permit, which allowed them to disobey the academy’s
rules (Vucinich, 2021). Any kind of opportunity to get some practical training, which informal
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apprenticeships with skilled technicians might provide, was even more inaccessible for women
due to social restrictions and guild control.
Another factor was the highly sexist environment that dominated Russian society, which
did not allow women to invent by training them to think that technical fields were not for them.
Many academics regarded the Enlightenment, which held that women were scientifically imbued
and inherently inferior to men, as a fact (Podzorova, 2018). Periodicals like “The Advice from a
Lady to Her Daughter” discouraged women from acquiring education, saying that it would either
overstimulate their brains or make them vulnerable to establishing their chastity (Evans, 2022).
The religious authorities also instilled an understanding of women’s role in life, and it was not in
art but as housewives (Szymanowska, 2021). Therefore, due to such unsuitable discouraging
cultural factors, Russian women were able to continue scientific activities or invention dreams
only if they lacked proper support resources.
A few of the pioneers established themselves to come up with working gadgets or
discoveries on their own and struggled for recognition in the male-dominated scientific
community. While some women, of course, came from wealthy families, and some were
financially independent, and their assets allowed them to tinker with cars, they had no documents
that would indicate that they were knowledgeable for the institutions of the period (Ponomareva
and Sgibneva 2021). In undertaking such activities as the presentation or demonstration of
inventions to the public, a woman was likely to transgress the etiquette of decent woman nature
as was expected during that period (Polukhina, 2021). Consequently, there are rather few written
accounts about any 18th-century Russian women inventors, to say nothing of unpatented
inventions, which are mentioned in personal letters or diaries written decades later (Evans,
2019). As it was mentioned earlier, it was only the modern feminist scholarship that managed to
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bring the erased histories of Russian insignificant women inventors to the limelight; without it,
the above unmentioned inventions would not have been recognized.
Thus, difficult educational conditions, prejudice concerning women’s capacities, and
academic discrimination in the 18th century did not allow intelligent and scientifically interested
Russian ladies to become inventors. You can’t fathom this; it is more than stories of heroes who
invented gadgets and wanted to make the world a better place, knowing full well that it was
impossible. Since so few tangible creations can be seen in today’s world, the fact that single
women’s inventions exist at all means that there were likely many more inventions under
policies and attitudes such as those seen above that could have benefited the Russian society.
Other sections of the existence of the world would experience equal and better opportunities, but
women were among the sidelined persons even when there were adversities. It is therefore
important to pay tribute to those unknown early Russian female inventors, as their success is a
test of how people can rise above hardship.
The 18th century Russian women devised strategies for invention recognition
In the 18th century, a number of women inventors existed in Russia who have immensely
contributed to the field of science and technology but got less recognition. Some historical
investigations in the recent past have demonstrated how these women were by some means able
to maneuver within a male-dominated culture and to ensure that the inventions they developed
were brought to the public domain in a society that did not allow women any room to invent and
patent in sciences (Smith 2017). A striking example is the Russian Maria Kirilova, who invented
the early type of calculator in 1763 and she used gears to perform addition, subtraction, division
and multiplication. From the social and legal perspective, it is necessary to understand that
Kirilova was some unmarried gentlewomen with no personal means and no title and therefore
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would have met insurmountable challenge before her should have tried to patent the device on
her own. But she showed to her younger brother Pyotr how to construct and how to work on her
creation. Pyotr then introduced the device for the public under his own name and later petitioned
count Orlov, who agreed to fund for the manufacturing of the device (Novikova, 2021). This
made way for Kirilova’s fairly brilliant invention, which, unlike the woman behind the invention,
gained fame and further capitalized.
The other female inventors engaged in what King (2020) described as ‘Proxy patenting,
where close relatives applied for patent on an invention that the woman herself had developed
Sometimes, the inventions were developed after learning from designs observed in books, such
as the case of Princess Ekaterina Vorontsova, who sketched an improved silk loom in the 1750s
after being taught by designs she came across while studying The women could not own any
property right as an unmarried royal woman, she assisted her brother to patent and construct the
loom which her brother later on marketed effectively to textile factories all over Russia
(Poganava, 2019).
In addition to using male relatives, some of the more proactive women also shared
information and ideas in printed media anonymously or using a male alias. For example, Dr.
Nadezhda Stasova, who established methods in astronomy in the 1770s, was publishing under
the pseudonym NAI due to different bans imposed on women in scientific fields and
organizations (Petrov 2016). Still, some may even want to argue that these female inventors
never came out in the open to own up to the work they were performing. However, such proxy
strategies allowed them to participate in scientific activities that they would not have been
participants in due to social restrictions on gender at their time.
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In addition, it is the issue of the presence of these women and their sharp minds and
inventive ability in the 18th century that casts doubt into traditional historiographical methods
that would presuppose that Russian culture of the era was uniformly averse to female education
and accomplishment (Taylor, 2018). These first waves of female scientific pioneers strove and
schemed to get over the obstacles through such techniques as proxy patenting, anonymous
writing, and, most intriguingly, educating male family members on how to bring inventions that
would have otherwise been out of their grasp and, in the process, prove that the barriers “did not
suppress scientific and inventive spirits” (Smirnova, 2021, p. 189). The methods they used
should be viewed not only as a surrender to patriarchal dominance but as meaningful
manipulation of technology, taking into account the available resources they had.
As such, one could claim that while female scientists of Russia’s early history may have
been written out of history, contemporary academic research has shown how the women of the
18th century found nuanced ways for the official recognition of inventions as well as funding
from the commercial spheres. The fact that they want to perform their own research and
construct prototypes in environments where gender gaps are quite profound is quite impressive
and indicates passion towards science. These highly innovative breakthroughs in computing,
engineering, astronomy, and other fields assist us in remembering that technology advancement
never was and is not exclusively the realm of the influential and the blessed with adequate
resources. However, we still have a lot of work to carry out in order to uncover many other
nameless inventions of many unknown scientists in the past. However, the recovery and
subsequent analysis of the inventions and practices of the first Russian female inventors provide
a glimmer of hope in the volume of many other buried but promising stories of human genius,
talent, and courage, which can be profiled and discovered and told in the future.
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Marital status influenced 18th century Russian women's invention claims
According to Clement et al. (1999), considering marital status as another factor that can
also affect the tendency of 18th-century Russian women to file inventions is also an interesting
and striking issue that helps shed light on the aspects of gender, class, and power relations of the
given period. At that time, women’s civil liberties together with their employment possibilities in
Russia were restricted by the legal standards as well as the social practices; however, specific
women were revealed to engage in invention processes and file patent claims. An analysis of the
claims made by those involved in this case in light of their marital status affords a further
understanding of how social standing influenced the manner and capacity of women to challenge
and assert scholarly power.
Gender relations insights of the 18th century Russian empire suggest that, though
positioned below males in the social hierarchy, women nevertheless had a few opportunities to
experience the cultural life—provided they were born into the nobility or received some
education (Engel, 2000; Rosslyn, 2016). Tiptoeing down the very same aisle, legality of
marriage for women was accompanied by the removal of several of their rights; restrictions of
their working capabilities or the capacity to have a legal identity different from their husbands
were still prevailing through what was known as the ‘coverture laws’ (Clements et al., 1991).
Single women and widows had the measures of freedom and agency to manage the business,
oversee the land, manage the peasants, and also engage in trade for the family, and also to work
for creativity, scholarship, arts, and other works. A view that is as complex suggests that Russian
women’s marital status provided the key to the choice of opportunities that could help to develop
the practical experience and the stated formal skill needed to invent the inventions and to file the
claims.
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Using statistics, the patent data involved to analyze test the hypothesis that marital status
affected the invention claimed. Using over 300 inventions of Russian women in the 18th and
19th centuries that Khan (2012) described, it was found out that many of the inventors or those
claiming to be inventors were either single or widows. This, therefore, infers that control of legal
and economic power was delicate to women inventors as they sought to set claim on their
creative works. The necessary knowledge and leverage, including the management of finances,
estates, and factories, as well as the knowledge of the serfs, helped some women efficiently make
the necessary bureaucratic procedures. In addition, the women, who patented inventions, were
from the lower nobility or merchant class; they were fairly educated and contributed to family
business (Khan, 2012). These women had capital and a market to experiment in crafts, crops, and
industrial techniques, which they could then patent, unlike the plight of those other poor women
who were willing to work for wages.
More examples of unmarried noblewomen described below showed that legal and
economic independence combined with education, business experience, and the opportunity to
network enabled the women inventors to present new propositions. For example, single woman
Olga with aristocratic background, Alekseeva-Zasetskaia, patented the invention of the improved
boat rudder in the first half of the nineteenth century after managing her family’s steamship
business (Rosslyn, 2016). Perhaps she invented it after acquiring the knowledge in navigation
and steam machinery from this business involvement. Similarly, Nadezhda Stepanovna
Svechina, who was a single, well-educated noblewoman, received four patents for printing the
scarves in the mid-19th century, which clearly shows her intention to create something new
(Khan, 2012). Consequently, such women who wished to become enterprising had little
opportunities of learning and gaining for such newly patent ventures.
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On the other hand, the modern view demonstrates that it was hard for married women
inventors because of the bars set by the husbands and fathers, meaning that they were creative. In
the view of Khan (2012), the laws that did not give legal personality to married women to pursue
independently their claim through a male guardian restrained the control that the married women
had over intellectual work, thus making the statement quoted below. It is therefore quite probable
that such actions as wife litigation that appear to be individual really involved the husband
recognizing his wife’s work in certain situations. Nevertheless, it can be stated that certain
general impressions are rather vague and based on the belief that Russian women inventors’
unmarried state did grant them improved abilities, education, and exposure to the industry.
Therefore, the records from the 18th and early 19th centuries, which document the
Russian women inventors who applied for patents, substantiate the evidence that the aspects of
the marital status left a social imprint on the professionalism, expertness, and authoritarianism
that the female intellectual possessed, based on their class and family antecedence, education,
and business careers. The following categories of women were most likely to seek visions and
prospects in patented technologies and designs than the very few opportunities afforded to
married women: unmarried as well as widowed women, particularly those in the noble and
merchant classes. This assumption suggests that for an entrepreneurial Russian lady wanting
knowledge and applying it to submit new invention claims, the Russian women have to remain
economically and legally liberated even though the Russian women had no rights and were
veiled at that period in history.
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Social class in 18th century Russian invention opportunities
Noble versus commoner status in 18th century Russian inventions
The eighteenth century found Russia in a clear divide of social classes where the nobility
had a different legal jurisdiction and many more and economic restraints from the rest of the
population; they had economic privileges and the right to aquisition of resources. This social
structure also continued in the area of innovations and inventions, and one could discern a clear
distinction between inventions pioneered by nobles and inventions pioneered by common folk.
On the noble side, people had more freedom, financial means, and time to experiment with
something new, toying with and implementing ideas they came up with. Some of them formed
their laboratories, workshops, and proto-factories in their estates, and thus they could tinker
(Andreev, 2021). In addition, nobles had better knowledge and education since they travelled
abroad or attended universities where they received an input of the enlightening ideas
(Ponomaryova & Ustinova, 2018). For example, it is known that many Russian high nobilities
brought in innovations; for instance, Count Rumyantsev, who supported Ivan Polzunov to
construct the first functional steam engine even as early as the mid-1760s (Lipking, 2017).
However, the case for the upper classes was far different, as they could easily and with a
lot of freedom embrace innovations when compared to their lower-class counterparts. The
peasant serfs had almost no ownership rights and other belongings remaining to their own selves;
the majority of their time was spent serving masters under serfdom that was strictly implemented
in Russia. As for some of the serfs, skills like metalworking or carpentry were given, and real
independent screwing was almost incomprehensible (Ponomaryova & Ustinova, 2018). Any
contraption of any type that would be promising would be seized or appropriated by the owners
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of the land. If a model device was demonstrated, a noble would then take over, change the goal
to fit an aristocracy’s agenda, and provide more funding (Lipking, 2017).
Superior artisans in the urban areas had relatively more flexibility in experimenting with
new look and producing samples in their working premises. However, most had either limited
mobility or job stability to enable them to afford to undertake the risks involved in such
operations (Andreev, 2021). While the food for the aristocrats could always be negotiated by
some servant, these inventors from the lower stratum felt more than enough pressure to bring
food for the family. Thus, innovation, which did not have a connection with the material goods
available for sale in the market, was quite low (Ponomaryova & Ustinova, 2018).
In spite of that, commoner artisans and serfs were as smart as nobles were when it came
to their occupation. But they developed many of the concepts and competencies that Russian
inventiveness was fostered on (Andreev, 2021). But in many cases, they were unknown and
uncompensated regardless of how hard they scuffled to bring about change. To echo that,
Lipking (2017) said it very much alike when he wrote that: ‘Even into the early 19th century,
serf and commoner craftsmen were the faceless and nameless tech workers of Russia They were
the base, but they could not always transform ingenious work-around into sound and more
elegant engineered plans’.
Businesses and governments took effort in devising more possibility in invention
innovation for the common people. For example, I state that non-elite groups could have better
systematic engineering education after the creation of state polytechnic schools and the removal
of some of the serfdom restrictions as a positive impact (Andreev, 2021). Manufacturing skill is
considered to have originally developed from substantial stores of metal. According to the very
early detailed research findings, in order to forge goods of a certain type, it takes making raw
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supplies available to be processed separately by a single talented artisan ; some of the most
prominent merchant families invested in this method by appropriating supply to talent as distinct
manufacturing concepts necessary to develop manufacturable ideas (Ponomaryova & Ustinova,
In this way, by the 50s of the nineteenth century Russian infrastructure modernization, common
people appeared more often, putting pressure on the Russian progresses.
Considering the generalizing conception of the abilities in 18th-century Russia, it is
possible to state that the inventions mentioned could be created only under the condition of strict
adherence to the division of classes. Nobility, for example, was privileged in terms of social
acceptance, capital, and education to be ridiculous, while the lower classes were restricted to
rights and working hours. However, it is the creativity of the commoner that created primary
technologies that have been adopted and formalized by the upper classes. Gradually, the
institutional reforms offered chances to more of the commoners to get into systems that range
between idea generation and mass production. Petrov (2019) concludes that understanding of
these class dynamics is crucial for accounting for the reasons for the emergence of the Russian
modern innovation in the middle of an acephalous tyrannical society with powerful undertones
of stratification.
Education molded 18th century Russian inventors' academic credibility substantially
Education persisted to be one of the ingredients observed in Russia throughout the 18th
century, as inventors were able to signify their academic credentials and advance greatly to
various fields. At the start of the century, at the Reforms of Peter the Great, Russia started the
active cooperation with Europe in science and technologies. This led to changes in institutional
reforms of technical education in order to make it systematic. That improvement in education led
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to an increase in the academic competence of inventors to initiate novelties in mining,
metallurgy, and manufacturing activities was also evidenced.
In Russia before the 18th century, the technical education was much inferior to the
corresponding level in the countries of Western Europe. The inventions that emerged in the
domestic setting were driven mostly by serf craftsmen who had little or no schooling. Peter’s
educational reforms were the call for state-run technical schools, which were done following the
European curriculum and textbooks. For example, the Moscow School of Mathematical and
Navigational Sciences, established in 1701, had provided higher education in civil engineering,
mathematical sciences, and the navy. Hence, relying on the European knowledge of that time,
such graduates as inventor Ivan Kulibin possessed a powerful academic foundation in order to
develop new machines.
According to Petrov (2019), state policies also convinced the young inventors to move to
other countries so that they could gain overseas experience. Through the offering of apprentice
scholarships, technical trainees like toolmaker Andrey Nartov got an opportunity to pursue
internships in British factories before bringing in western standards in Russia upon their return.
When they came back, the recipients benefited from more academic status as modernizers who
were able to share ideas that had been made in other countries within the said nation. Its different
form of exposure put educated inventor-technicians in a more credible rejstructing position in the
industrialization process. This was down to the fact that the number of formally educated
Russian inventors increased in the 18th century by a specialty mining school opened in 1719.
This way, students systematically studied geology, mineralogy, chemistry mechanics, and more
along with invention. Graduates then used this general education to look for and implement the
ideas on which improvements would be based. For instance, Pavel Obukhov, a metallurgist,
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created the cast iron frame rolley for transport of ships over land with the knowledge in naval
architecture obtained in his learning. Thus, these inventors’ concrete technical education added
to their intellectual expertise in their roles as the professed bearers of the modernizing impulse.
In mid-century, these institutional educational reforms have formed an extended class of
reputable inventor-scholars. Even numerically, the totals are far from significant, but still,
theoretical training was added to inventive work, contributing to the emergence of a strict
methodology and making it not only a craft but also an academic professional technical science.
For instance, the knowledge you gain from studying the steam engine theories created by the
inventor Ivan Polzunov contains information that is only available in higher mathematics and
that a person like a blacksmith could not possibly overstudy. His prototyping competency was
derived from formal education, hence being different from ‘This and that’ sayings. Education of
this degree therefore helped greatly in increasing the academic credential of inventors.
Conclusion
The longstanding impact of 18th century Russian invention culture on scientific identity
The 18th century may be regarded as a critical period in the evolution of Russia as a state,
with all the prerequisites for the evolution of a Russian scientific spirit, consequent upon a
tradition of invention. The sciences in Russia prior to the 18th century can be considered
miniscule, and Russia had no indigenous inventions of science and education; all the knowledge
had to be purchased from the west. Although in the reigns of Peter the Great and Catherine the
Great some steps were made to encourage invention, and even the invention of a patent and the
creation of academies of science were begun (Andreev & Gouzévitch, 2022). Such state-led
campaigns for upgrading science and technology played a major role in building the necessary
conditions for domestic innovation.
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Hence, it is possible to conclude that one of the qualitative effects of this period was the
formation of Russian scientific identity as the principles of practical relevance and the benefit of
the state (Vucinich, 2022). Russian scientists and inventors were patriotic and believed that their
inventions could make the empire obtain a stronger, more powerful army, the economy glowing,
and the image would make people of other nations have something to look up to. This was in
contrast to such scientific cultures that were being practiced in other European states, where
there was a culture of carrying out basic research with no thoughts of its application. The
Russian useful sciences approach linked science to state service and established an identification
pattern that proceeded in the subsequent period beside the eighteenth century (Graham &
Dezhina, 2008). One must know that inventors and scientists intended to show that their
inventions and discoveries serve a purpose when they had to seek funding from the state.
The prevalence of the outlook of the science that was formed in the 18th century and that
was based on the pragmatic and state experience in Russia consistently affects the Russian vision
of the meaning and place of science (Toumanoff, 2022). Today’s scientists and many politicians
are convinced that science must be used; it has to fulfill the role of increasing the capabilities and
grandeur of the state. Studies if they are general in nature or do not have an apparent practical
utility will be considered with skepticism or discarded all together. This has impacted on funding
in as much as emphasis is placed on military, space, nuclear, and medical research as does
theoretical research. It also determines what the general public considers to be legitimate science.
Thus, there is still cultural narrative in Russia that aims to highlight technological inventions
which have striking potential.
There is also an unchangeable thought that the attempts to make Russian science and
technology advance in the 18th century regarding the state initiatives as efficient have been done.
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There is also the idea that authorities must always start and control progress (Katrechko, 2020).
Katrechko (2020) adds that this results in state consent and subsequent further concentration of
scientific activity that relates to the priorities of the government in the identified topics for
research. These traditions of the close administrative hand on scientific institutions that are
rooted in the 18th century formed an identity for state overseeing and control. This created the
path dependency, where lack of dependence on authorities is not synonymous to science as a
culture. It will still be possible to find the acknowledgement of bureaucracy as instead of being
constraining as a nature of organizational reality.
During the 18th century, there was a push in science to encourage inventions in Russia
and create scientific institutions that were unique to that country. This created a permanent way
of talking about science within the culture, one that was linked to inventions, competition, and
centralization for the good of the state. Through the useful science approach, which emphasized
the practical utility and the state well-being of the nation, a link between science and Russian
nationalism was created, which formed the continuous public and political attitudes to the
purpose of science different from other nations. It is therefore fair to assert that these roots of
scientific identity have remained rooted in the molding of policies and management of science to
date, more than two hundred years from now.
