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The academy contribution to the formation and development of Russia's armament system.


The history of Mikhailovskaya Artillery Academy is connected not only with the training of officers for missile forces and artillery (MFA See multifactor authentication. ), but also with the evolvement of artillery and small arms small arms, firearms designed primarily to be carried and fired by one person and, generally, held in the hands, as distinguished from heavy arms, or artillery. Early Small Arms


The first small arms came into general use at the end of the 14th cent.
. As late as the second half of the 19th century, the academy scientists made the enormous contribution to the retrofitting of the Russian Army with the rifled-barrel artillery. The academy scientists laid the foundation for external and internal ballistics Internal ballistics, a subfield of ballistics, is the study of a projectile's behavior from the time its propellant's igniter is initiated until it exits the gun barrel. The study of internal ballistics is important to designers and users of firearms of all types, from small-bore , artillery system and small arms design theory, the theoretical basis and production of powders and explosives.

Along with many other names, Prof. N.V. Maiyevskiy and Prof. A.V. Ga-dolin should be named as the first world-famous scientists of Mikhailovskaya Artillery Academy.

Gen. of the Artillery N.V. Maiyevskiy was one of the foremost authorities in world science. He actively participated in the retrofitting of the Russian Army with the rifled-barrel artillery. His treatise about the impact of gyration gyration /gy·ra·tion/ (ji-ra´shun) revolution about a fixed center.

gyration

revolution about a fixed center.
 on flying oblong projectiles in the air (1865) was the pinnacle of the multiannual investigations of external ballistics External ballistics is the part of the science of ballistics that deals with the behaviour of a non-powered projectile in flight. External ballistics is frequently associated with firearms, and deals with the behaviour of the bullet after it exits the barrel and before it hits the  and was important for the creation of rifled-barrel artillery. His treatise was among the first of its kind in this branch of world science. In the late 1960s, under the guidance of N.V. Maiyevskiy, new experiments were carried out for measuring air resistance to oblong projectile projectile

something thrown forward.


projectile syringe
see blow dart.

projectile vomiting
forceful vomiting, usually without preceding retching, in which the vomitus is thrown well forward.
 movement. On the basis of the launch-site investigations, he defined air resistance law later to be known as Maiyevskiy's law. Also gaining high distinction was his treatise about the impact of gyration of oblong projectiles on their penetration in solid media, which saw the light in the mid-1960s. These treatises brought about the upheaval in the domain of artillery, and immediately acquired world renown.

N.V. Maiyevskiy took part in the development of rifled-barrel artillery guns. Maiyevskiy's creativity was immensely important for the development of Russian artillery and artillery science. As a matter of fact, under his guidance all the technical issues concerned with the improvement of artillery weapons were developed in the second half of the 19th century. All types of guns, which were designed by him for field and garrison artillery, surpassed by their characteristics their foreign analogues.

His talented followers continued N.V. Maiyevskiy's scientific investigations. One of them was N.A. Zabudskiy, the Merited Professor of the academy, prominent scientist and educator. Since 1877, he delivered the training course in ballistics ballistics (bəlĭs`tĭks), science of projectiles. Interior ballistics deals with the propulsion and the motion of a projectile within a gun or firing device.  at the academy. He is the author of numerous writings in this area, as well as in the domain of mathematics and mechanics.

These years also coincided with the height of the scientific activity of A.V. Gadolin, the scientist and talented educator. His writings were extremely important for the design and production technology of artillery barrels. Thanks to the writings of A.V. Gadolin, which were devoted to artillery barrel design, and which did not loose their validity today, Russian artillery was in possession of the first-class, robust, long-range and reliable guns--the gunnery systems of 1867 and 1877. Those were the first guns with the steel barrels. The system introduced in 1867 laid the foundation for retrofitting Russian artillery with breech-loading rifled-barrel guns. The second system, which was the first to get the name of long-range artillery, was ahead of time by its characteristics. Those guns performed successfully in WWI WWI
abbr.
World War I


WWI World War One
 and in the Civil War displaying high reliability, simplicity of operation and excellent firing accuracy.

The steel gun-carriages and all the other elements of the 1877 artillery system, except for the barrel, were developed by A.P. Engelgardt, the talented graduate of the academy, who played the outstanding role in the development of the tough and resilient gun-carriages and the artillery systems as a whole. He was the first to put on the wheels the 152 mm (60-in) field mortars of his own design.

The need for the transition from wooden carriages to steel artillery carriages was first perceived (after Crimean War Crimean War (krīmē`ən), 1853–56, war between Russia on the one hand and the Ottoman Empire, Great Britain, France, and Sardinia on the other. The causes of the conflict were inherent in the unsolved Eastern Question.  experience) by S.S. Semyonov, the academy graduate, whose writings concerning artillery carriages for large-caliber garrison guns and siege guns, gained world renown. Of great importance was the invention by Prof. I.A. Vyshnegradsky of the prismatic pris·mat·ic   also pris·mat·i·cal
adj.
1. Of, relating to, resembling, or being a prism.

2. Formed by refraction of light through a prism. Used of a spectrum of light.

3. Brilliantly colored; iridescent.
 powder manufacturing process, which enables to raise projectile initial velocity the velocity of a moving body at starting; especially, the velocity of a projectile as it leaves the mouth of a firearm from which it is discharged.

See also: Velocity
. This invention immediately gained world renown.

R.A. Durliakhov, the academy graduate and teacher, was the first to invent (as early as the late 19th century) the recoil recoil /re·coil/ (re´koil) a quick pulling back.

elastic recoil  the ability of a stretched object or organ, such as the bladder, to return to its resting position.
 compensator for the field gun. This type of recoil compensator is used for the barrels of modern field, tank and self-propelled guns. The recoil compensators designed by R.A. Durliakhov possessed very high effectiveness, and actually they were the forerunners of recoilless re·coil·less  
adj.
Designed to minimize the effect of recoil: a recoilless rifle.

Adj. 1. recoilless - of or being a weapon that is designed to minimize recoil
 guns.

In the 1880s, the academy teachers were joined by D.K. Chernov, the great Russian metallurgist, the founder of the science of adaptive metallurgy and of steel heat treatment theory. He worked in the academy for nearly 40 years. He created the chair of adaptive metallurgy, and, working at it, the talented scientist wrote his outstanding papers. D.K. Chernov discovered the chemistry of erosion (burn-back) of the barrel breech breech (brech) the buttocks.

breech
n.
The lower rear portion of the human trunk; the buttocks.



breech, britch

the buttocks of an animal; the backs of the thighs.
 chamber under the impact of powder gases. He laid the foundation of metallography metallography

Study of the structure of metals and alloys, particularly using microscopic and X-ray diffraction techniques. Visual and optical microscopic observation of metal surfaces and fractures can reveal valuable information about the crystalline, chemical, and
, and he is justly considered the father of this science worldwide.

The revolutionary event, which governed the development of artillery in the second half of the 19th century was the discovery of cellulose nitrate cellulose nitrate
n.
A pulpy or cottonlike polymer derived from cellulose treated with sulfuric and nitric acids and used in the manufacture of explosives and plastics. Also called nitrocellulose.
 (smokeless smoke·less  
adj.
1. Emitting or containing little or no smoke: smokeless factory stacks.

2.
) powder. Its experimental manufacture began in 1887 at the Okhtinsky powder plant under the supervision of N.P. Fyodorov, the academy professor, and S.V. Panpushko, who lived a short, but bright life. N.P. Panpushko worked much on the chemistry issues of new explosive substances and on filling of munitions mu·ni·tion  
n.
War materiel, especially weapons and ammunition. Often used in the plural.

tr.v. mu·ni·tioned, mu·ni·tion·ing, mu·ni·tions
To supply with munitions.
 with them. While testing one of those substances, the talented chemical scientist was tragically killed. In honor of the great achievements in Russian artillery, the monument to S.V. Panpushko was unveiled in the main artillery practice ground.

The academy professors G.A. Zabudskiy, A.V. Sapozhnikov, A.A. Solonina, A.A. Dzerzhkovitch made the significant contribution to the theory and technology of explosive substances.

Note that the development of new indirect fire methods would be impossible without the invention of artillery instruments such as panoramic sights, aiming circles, and new devices for aiming. The academy graduate V.N. Mikhailovsky, in conjunction with artilleryman V.D. Turov, designed the angle gauge transformer (the commander's angle gauge), which was later modified by them for the commander's azimuth azimuth (ăz`əməth), in astronomy, one coordinate in the altazimuth coordinate system. It is the angular distance of a body measured westward along the celestial horizon from the observer's south point.  circle--one of the principal fire control devices of field artillery. Mikhailovskiy-Turov azimuth circle one of the great circles of the sphere intersecting each other in the zenith and nadir, and cutting the horizon at right angles.
See under Azimuth.

See also: Azimuth Circle
 (BMT BMT bone marrow transplantation.
BMT,
n.pr See bone marrow transplant.

BMT Bone marrow transplant, see there
) was the inevitable item of the field artillery batteries. The upgraded (BMT-2) azimuth circle was widely used till the end of the Great Patriotic War The term Great Patriotic War (Russian: Великая Отечественная война, . Note that the inventions of V.N. Mikhailovskiy helped Soviet plants to develop the production of panoramic sights for guns, thus avoiding dependence on foreign imports of those instruments.

The emergence of the other two types of weapons--the missile and rocket armaments--is closely linked with the history of Russian The history proper of the Russian language dates from just before the turn of the second millennium.

Note. In the following sections, all examples of vocabulary are given in their modern spelling.
 artillery, as well as with the academy history. A.D. Zasyadko, the first Commander of the Artillery School and the General of A.V Suvorov's military traditions was the inventor of high explosive rockets and incendiary INCENDIARY, crim. law. One who maliciously and willfully sets another person's house on fire; one guilty of the crime of arson.
     2. This offence is punished by the statute laws of the different states according to their several provisions.
 rockets (1815-1818). He also designed the six-barreled salvo rocket launcher (with 2-mile (3-km) launching range). Like all artillery weapons of those years, the Years, The

the seven decades of Eleanor Pargiter’s life. [Br. Lit.: Benét, 1109]

See : Time
 rockets were filled with black blasting powder. In 1827, A.D. Zasyadko formed the first rocket firing battery. In the Russian-Turkish war (1828-1829), the rocket firing battery was used on the battlefield, and at one time it was part of the siege artillery under A.D. Zasyadko's command.

Besides the scientific investigations in the area of artillery, the academy scientists laid the foundation for the development of small arms. Blazing the trail in this domain was V.L. Chebyshev, the talented scientist, designer and academy professor (brother of P.L. Chebyshev, the outstanding Russian mathematician). The scientific school of weapon designers began to form itself under his guidance. V.L. Chebyshev himself designed three breech-loading rifles (1867). But the warped judgment of military bureaucratic elite and reverence for foreign-made items were obstacles to introduction of the small arms designed by him. The same fate befell many other Russian-made weapons in the field of small arms. Sparing no efforts in overcoming a lot of encumbrances, only S.I. Mosin, the academy graduate and the follower of V.L. Chebyshev, was able to break through. The 7.62-mm (0.3-in) magazine rifle designed by him was put into service in 1891, and for more than half a century, it was successfully used for the country's defense.

The academy graduates also participated in the development of home-made automatic firearms. The impetus, sui generis [Latin, Of its own kind or class.] That which is the only one of its kind.


sui generis (sooh-ee jen-ur-iss) n. Latin for one of a kind, unique.
, in this direction was given by the book Automatic Firearms published in 1907. It was written by V.G. Fyodorov, the academy graduate, who became foremost authority in this area the world over. In 1906, under his guidance, V.A. Degtyarev began his work as designer of automatic small arms, and created the weapons that successfully passed the trials of the Great Patriotic War,.

The prominent role in the academy history is attached to the improved training of engineering personnel. In 1930-1932, officer studentship in the Artillery Faculty Guns-and-Carriage Department of the Military Engineering Academy reached almost 400 people. That is why, in the reformation of the Artillery Academy, this department evolved as the Artillery Ordnance Faculty.

The Faculty base germinated into a number of new design bureaus, chairs, laboratories and specialist fields. Thus in 1932, I.I. Ivanov, the artillery system design chair head and A.A. Slobodchikov, the laboratory head of the same chair became Chief Designers of the major artillery production facility; the teacher A.A. Tolochkov was appointed Special Design Bureau Head of another production facility; M. Yu. Tsirulnikov, the chair post-graduate, was at the head of another design bureau. All of them had previously worked in the academy design-engineering bureau headed by M.N. Kondakov. In 1935, the designers of this bureau were turned over to the industry. With the efforts of those design bureaus, many artillery systems were created and put into service in the pre-war years.

After the war began, all the research and development activities of the teaching staff and other personnel of the academy were immediately made to conform war-time requirements. Although, the industry, given the shortages, produced diverse artillery weaponry, it fell short, especially in the first war months, of the needs of the army field forces. The missing quantity of weapons had to be made up for not only by its increased production, but also by designing and putting into service new improved weapons.

The implementation of this challenging task was facilitated by the fact that many leading specialists in the defense industry were graduates of the academy. Their activity was not ring-fenced, as they maintained constant ties with the academy. The academy graduates worked in positions of responsibility in military research institutions and design bureaus, at testing grounds, plants and arsenals, in the government ministries, which designed and produced weapons and military equipment, in the Main Artillery Department of the People's Commissariat of Defense.

The positions of responsibility, including those of chief designers of artillery weapons and small arms, were held by the following Heroes of Socialist Labor: D.N. Vishnevsky, V.G. Grabin, I.I. Ivanov, M.Ya. Krupchatnikov, V.K. Ponomarev, as well as S.M. Nikolayev, A.I. Sudayev, A.A. Tolochkov, V.G. Fyodorov, M.Yu. Tsyrulnikov.

After the war, the process of putting into military service the newest achievements of science and engineering were carried on. First and foremost, it concerns rocket-launching artillery. The fundamental investigations, which had been conducted before the war and during the war, continued after the war ended. Scientific investigations of Prof. I.P. Graave, Prof. Ya.M. Shapiro and others concerning the movement of jet-propelled projectiles, their aerodynamics aerodynamics, study of gases in motion. As the principal application of aerodynamics is the design of aircraft, air is the gas with which the science is most concerned. , charge quantity burning theory, methods for calculating and designing such charge quantities and their components played the important role in the development of rocket-launching artillery. Much attention was also paid to solving fire theory issues, the accuracy assessment of jet-propelled projectiles. The obtained results had profound effect on improving of rocket-launching artillery and on its further development, also including its effective employment methods.

The experience of the Great Patriotic War determined the venues for the further development of tube artillery. The increased momentum of offensive operations, the rising motorization mo·tor·ize  
tr.v. mo·tor·ized, mo·tor·iz·ing, mo·tor·iz·es
1. To equip with a motor.

2. To supply with motor-driven vehicles.

3. To provide with automobiles.
 and mechanization mechanization

Use of machines, either wholly or in part, to replace human or animal labour. Unlike automation, which may not depend at all on a human operator, mechanization requires human participation to provide information or instruction.
 of ground troops required the higher movability and weight-saving of artillery guns conjoined conjoined /con·joined/ (kon-joind´) joined together; united.

conjoined

joined together.


conjoined monsters
two deformed fetuses fused together.
 with the rise in their long-range firing capability, rapidity of fire and in the destructive power of projectiles to hit the target. These issues were addressed by new approach to designing practically all the elements of artillery systems. Significant contribution to the solution of these issues was made by: K.K. Greten, I.I. Zhukov, A.N. Kupriyanov, E.K. Larman, S.A. Prikhodko, M.F. Samusenko.

The large volume of investigations in the area of weaponry and materiel ma·te·ri·el or ma·té·ri·el  
n.
The equipment, apparatus, and supplies of a military force or other organization. See Synonyms at equipment.
 development has also been implemented under the present conditions: methodology was developed for the integral quality assessment of artillery weapons and the methods for multi-factor prognostication of weapon battle characteristics; extensive investigations were conducted to justify weapon programs and major venues for development, harmonization har·mo·nize  
v. har·mo·nized, har·mo·niz·ing, har·mo·niz·es

v.tr.
1. To bring or come into agreement or harmony. See Synonyms at agree.

2. Music To provide harmony for (a melody).
 and standardizing of armaments and materiel; investigations were conducted for development of rationale for reasonable armament make-up of the ground troops and uniform methods for armament combat effectiveness evaluation. Participating in the above investigations were the following scientists: V.P. Demidenko, V.T. Bebeshev, A.A. Kond-tratiev, V.S. Malinovskiy, L.A. Martyshchenko, A.G. Tashevskiy, G.N. Ulianov, I.M. Fyodorov, A.Ye. Filyustin and many others.

Thus, the Mikhailovskaya Military Artillery Academy, with good reason, can be considered not only as the launch pad for highly qualified officers, but also as science hub for theoretical justification of development of armaments and military equipment of the Armed Forces of the Russian Federation The Armed Forces of the Russian Federation (UTC) (Russian: Вооружённые Си́лы Росси́йской .

Col. V.A. CIIUBASOV

Candidate of Military Sciences, assistant professor

Lt. Col. A.E. FROLKIN

Candidate of Technical Sciences, assistant professor

Col. S.S. KONOVALOV

Candidate of Technical Sciences, assistant professor
COPYRIGHT 2006 East View Publications
No portion of this article can be reproduced without the express written permission from the copyright holder.
Copyright 2006, Gale Group. All rights reserved. Gale Group is a Thomson Corporation Company.

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Author:Konovalov, S.S.
Publication:Military Thought
Geographic Code:4EXRU
Date:Jan 1, 2006
Words:2333
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