To the 65-th Anniversary of the Central Scientific Research
Institute of Scientific research Centre of Russian Cosmonautics G.G.Raikunov TsNIIMash The year of 2011
was declared a Year of Cosmonautics in The 65th
Anniversary of the Central Scientific-Research Institute of NII-88 and
S.P.Korolev Two remarkable
events of the 20th century, which opened the era of space
exploration, went down in the history of scientific-and-technical development
of Mankind; they are the launch of the first artificial Earth satellite into
orbit (4 October 1957) and the first flight of a manned spacecraft along the
satellite orbit (12 April 1961). These historical events are associated with
Sergey Pavlovich Korolev, an outstanding scientist and rocket designer, the
founder of applied cosmonautics, twice the Hero of Socialist Labour (1956,
1961), Lenin Prize winner (1957), Academician of the On On Rockets Department No. 3
(later OKB-1) of SKB-88 was at first the part of NII-88, which was headed by
S.P.Korolev, who had already been experienced in designing prototypes of
pre-war missiles and learnt the essence of design, building and operation of
German missile weapons. To rapidly solve
the scientific-and-engineering problems emerging in the course of development
of rocket complexes, S.P.Korolev initiated the establishment of the Council of
Chief Designers. S.P.Korolev, V.P.Barmin, V.P.Glushko, V.I.Kuznetsov,
N.A.Pilyugin, and M.S.Ryazansky were the members of the Council. The following significant
scientific-and-design developments were performed by this department of NII-88: 1). The first guided long-range ballistic missile
R-1. It was developed under S.P.Korolev's supervision on the basis of German
V-2 missile (1946-1948). R-1 missile with the mass of 13.4 t had the range of Along with the
development of combat ballistic missiles, S.P.Korolev initiated the program of
scientific research of the upper atmosphere in cooperation with the
institutions of the 2). R-2 ballistic missile (1950). The work on
ballistic missiles continued, which resulted in R-2 missile in 1950. The
missile's warhead with the mass of 1.5 t was detachable to improve the firing
accuracy. Missile range was R-2 missile served
as the basis for the geophysical rocket R-2A, which enabled the atmosphere
sensing up to the altitude of 3). Operative-tactical nonvolatile-propellant
missile R-11 (1953) and its land-based (R-11M, 1955) and sea-based (R-11FM,
1955) versions. In 1953, the first operative-tactical nonvolatile-propellant
(nitric acid and hydrocarbon) missile R-11 with the range of R-11FM missile
served as the basis for R-11M and R-11FM missiles. The first launch of R-11M
was performed on R-11FM was
designed to be launched by submarines. The first R-11FM launch from a rocking
sea test bench was performed in May, 1955, and on 4). The
first strategic missile R-5 (1953) and its modified version R-5M with a nuclear
warhead (1955). OKB-1 of NII-8 proceeded with the work on long-range ballistic
missiles. The dedicated research and experiments resulted in the first
strategic missile R-5. The first R-5 launch was performed on Modified version
R-5M was developed in 1955 and launched for the first time on 5). Geophysical rockets for the USSR Academy of
Sciences (R-1A, R-1B, R-1V, R-1E, R-2A, R-5A, R-5B, R-5R, etc.). Alongside with
R-5 and R-5M missiles, geophysical rockets R-5A, R‑5B, R-5V and R-5R were
built, which allowed of further research of upper atmosphere to enable the
development of promising missiles. On R-7
missile Two-stage
intercontinental ballistic missile R-7 is a remarkable achievement of the
national missile-and-rocket building industry. R-7 launch mass was 280 t.
Unlike its predecessor, R-7 was designed to be launched by a stationary launch
facility. Being launched from the On On A sketch design of
R-7 was finished in July 1954. Two-stage missile of a cluster configuration was
developed for the first time ever. The structure, layout, dimension, mass of
the missile and power of engines were absolutely different from preceding
domestic and foreign developments. With the range of R-7 missile
consisted of four identical strap-on propulsion modules and a core stage. Fuel
tanks of all the modules were load bearing. All the engines started on the
Earth. Side engines were shut down when the stages separated, and the core
stage kept on powering the flight. Each module was equipped with four-chamber rocket
engines with 80-90 ton-force thrust, which used liquid oxygen and kerosene. The
engines were produced by V.P.Glushko's design bureau. The missile flight
was control by a combined control system, designed by NII-85 (M.S.Ryazansky,
P.L.Pilyugin). Control radio system required radio control stations deployed
hundreds of km away from the launch position, so flight tests of the missile
were performed in a lonesome region near Tyuratam station in Flight tests and
training of military personnel for intercontinental missiles operation were performed
at a dedicated research test site NIIP-5 of the Ministry of Defense (future
Baikonur), which was established in this region according to the Decision of
the USSR government. Ground
firing tests of rocket packages and assembled missiles were performed at the
test bench of NII-88 second branch, built specially for R-7 testing. Flight
tests of R-7 started in May 1957. The first three launches were off-nominal. On
Space
launch vehicles On It is known that
S.P.Korolev spoke to D.F.Ustinov on possible works on development of an artificial
Earth satellite (AES) as far back as The world's first
AES was launched to the Earth orbit by R-7 launch vehicle on The works
initiated in OKB-1 of NII-88 under S.P.Korolev's supervision enabled to provide
a real triumph and confirm the advantages of the Soviet system in science,
education, engineering and socio-political structure (with implementation of
R-7 IBM, the first AES, the first manned space flight with a man onboard). Simultaneously,
the results of the first AES launches enabled to initiate the development of
space stations for exploration of the Moon, Venus and Mars. The tasks
associated with lunar exploration and interplanetary missions required the
launch vehicle to be equipped with the third stage to increase its
power-and-mass characteristics. Beside the third stage, an upper stage was
required to provide the escape velocity (more than 11 km/s) for the
interplanetary stations. Space probes were
intended for lunar missions. They were to be launched by a three-stage rocket
(R-7+ rocket module E) and a four-stage rocket (R-7+rocket module+booster L). The first Soviet
liquid-propellant engine, which started during the flight and burnt liquid
oxygen and hydrocarbon fuel, was mounted on module E and had a thrust of 5.6
ton-force. The engine was developed by S.P.Korolev's and S.A.Kosberg's design
bureaus (DB). Module I served as
the third stage of a four-stage launch vehicle. The module was equipped with a
four-chamber engine RD-0107 with a thrust of 30 ton-force, which burnt liquid
oxygen and hydrocarbon fuel. The engine was developed by S.A.Kosberg's DB. Module L was
intended for spacecraft boost from the satellite orbit and transition to the
flight path towards the planets. The first launch of the module was performed
under zero gravity conditions. Module L was equipped with the first in the
world closed-loop engine with 7 ton-force thrust, which burnt liquid oxygen and
hydrocarbon fuel. The engine was developed by S.P.Korolev's DB. The first
successful launch of the space probe was performed on The flights to
Mars and Venus were supposed to be performed by space probes 1M (to Mars) and
1BA (to Venus), and later by MB probe. They were launched by a four-stage
launch vehicle (R-7 + module I + module L). Works on these space probes began
in 1960. The first launch
of the four-stage space system with 1M-type space probe onboard intended for
the flight to Mars was performed on The accumulated
experience enabled preparation of spacecraft launch with a man onboard, which
marked further progress of this new era of civilization - the era of cosmonautics. Vostok spacecraft
with the cosmonaut Yuri Gagarin onboard was launched at 09:70 a.m. ( After a 108-minute
flight around the Earth, Yu.A.Gagarin successfully landed. TsNIIMash
and space branch S.P.Korolev died
on January 14, 1966, but traditions of the scientific-and-design school set up
by Sergey Pavlovich at OKB-1 were kept and developed at NII-88 (since 1967 -
TsNIIMash) and other enterprises and work groups of aerospace branch. NII-88 greatly
contributed to the formation of aerospace branch and its remarkable achievements.
It were the works initiated at OKB-1 NII-88 that enabled to start flight tests
of R- NII-88 (Central
Research Institute of Machine Building, TsNIIMash) was an ancestor of a large
number of rocket-and-space enterprises, which defined and still define the
image of Russian cosmonautics. The following organizations split off the
institute: Experimental Design Bureau 1 (OKB-1) (today - S.P.Korolev Rocket and Space
Corporation "Energiya"), Affiliated Branch 2 (Federal State Enterprise
"Rocket-and-Space Industry Science-and-Test Center"), Affiliated Branch 1
(NII-944 branch), Experimental Design Bureau 2 (FSUE A.M.Isaev KBKhimmash),
complex No.5 (Scientific Production Association of Instrumentation), Capital
Construction Authority (Stroyinvest Open Corporation), complex No.7 (FSUE "Agat"),
Department No.3 (Compozit Open Corporation). TsNIIMash became a
source of management personnel for the enterprises and missile-and-rocket
building industry as a whole. Such outstanding specialists of rocket-and-space
industry as G.N.Babakin, V.S.Budnick, A.M.Isaev, V.M.Kovtunenko, D.I.Kozlov,
V.P.Makeev, V.P.Mishin, M.F.Reshetnev, D.D.Sevruk, I.T.Skripnichenko,
B.E.Chertok, and M.K.Yangel worked together with S.P.Korolev. The Institute was
headed by Yu.A.Mozzhorin for almost 30 years. He turned TsNIIMash into a unique
authoritative multidisciplinary research centre. For about 10 years the Institute
was headed by V.F.Utkin, a full member of the The team of
TSNIIMash is proud that the first Russian long-range missiles were created
within the walls of the Institute, and the development of many strategic
ballistic and cruise missiles, launch vehicles and spacecrafts was initiated
here. All of the developed items resulted from the hard work and the intellect
of Institute staff. To implement a joint test project "Soyuz-Apollo", the
National Mission Control Centre (MCC) was established on the basis of TSNIIMash
coordinative computer centre. Later it became the main MCC of all Russian
spacecrafts, manned orbital stations and interplanetary space probes. At
present MCC provides flight control of the Russian segment of the International
Space Station (ISS); it works on applied projects and programs of international
collaboration. The Information and Analytical Centre for Position, Navigation
and Timing Support is working on the basis of our Institute; it provides
execution of key works to maintain our national GLONASS navigation satellite
system. The main tasks of
TsNIIMash are the following: scientific,
applied and system research of the prospects of rocket engineering (RE) and industry
(RSI); draft projects of state and federal space programs and programs of
defense-industry sector development in its RSI aspect, which define state
policy of Russia in the sphere of space activity; theoretical and
experimental research of gas dynamics, heat transfer and strength of launch
vehicles and spacecrafts; control of the
flight of manned spacecrafts and stations, space probes; substantiation of
prospects and scientific-engineering maintenance of development of RE and means
of position, navigation and timing support; scientific-methodological
support and coordination of works on assurance of quality, reliability and
safety of RE products; standardization,
unification and certification of RE; development of
supercomputer technology; development, certification and implementation of
application software packages for mathematical and simulation modeling to
provide development of new RE items and RSI progress. Solving problems
for the industry, the Institute took part in development of almost all the
rockets and launch vehicles, manned spacecrafts and space probes. Comprehensive
scientific studies, experimental tryout of RE products and system approach to
the problems are important features of TsNIIMash's activity. The Institute is
proud of its unique test facilities (see p.IV), many of which having parameters
surpassing those of foreign analogues. Today the Central
Research Institute of Machine Building is a leading scientific centre which
forms the scientific-and-technical policy in RE, being an independent state
expert and provider of scientific-and-technical maintenance of state regulation
of space activity according to the Constitution of the The system
research of space-and-rocket technology school was established in the Institute
which permits to analyze the ways of technology and separate complex systems
development, allowing for multiple-factor conditions and criteria. The
personnel include more than 350 researchers with Candidate and Doctoral degrees
and a lot of highly skilled specialists in many scientific and engineering
spheres. Many of them lavishly share their knowledge and experience with the students
of Moscow Institute of Physics and Technology, Moscow Aviation Institute, Our Institute
remains Besides, a large
number of models were proposed by TsNIIMash, providing the forecast of
emergencies in case of accident emission of pollutants in the atmosphere or
water, prediction of the flood territories and fire spread, simulation of dynamics
of their expansion and assessment of potential risks and possible damage. Application of cosmonautics'
achievements stresses the importance and necessity of basic space research with
application of space means' capabilities for the studies of the Universe and a
Man, studies of basic physical laws, which determine the very possibility of
human existence. Coordinating
Scientific and Technical Council on programs of scientific and applied research
and experiments at the manned orbital systems is functioning on the basis of
our Institute. According to the decision made by international space agencies
on prolongation of ISS operation up to 2020, there is a range of challenges
concerning the development and implementation of long-term exploration and
experiment programs in the field of space biology and medicine, physics and
material science, new space technology for the future exploration of the Solar
system. The issues of
providing the quality and reliability of space items and ground-based elements
of space infrastructure have gained primary importance. Our Institute has
recently headed the initiative on updating Regulations of space activity,
determining the procedure of design and operation of space equipment. A number
of proposals were made by TsNIIMash to upgrade the system of providing quality
in rocket-and-space industry. The present space
activity becomes increasingly global. Our Institute is actively developing the
international scientific-and-engineering cooperation in space activity. Joint
work of scientists and specialists from all over the world is performed on
regular basis - primarily from the 65 years is a long
term, which is enough to claim that: TsNIIMash has
established itself not only as a scientific research organization of Roscosmos,
but also as a leading scientific-engineering center determining the development
of the world cosmonautics in the 21st century. Remembering prominent
achievements of our predecessors, today's TsNIIMash staff makes worthy
contribution in development of fundamental basis and scientific-engineering
potential in the human space activity. References 1.
50
years ahead of one's century. International educational program. Close
Corporation, 2.
Scientific
center of astronautics and rocketry. International educational program. Close
Corporation, 3.
Space
scientific center. 2-volume monograph. Pages of history. Book 1.
Editor-in-chief G.G.Raikunov, TsNIIMash, RINFO publishing house, 4.
Epoch
of rockets and space. Memorable dates. Palette Plus Publishing House, Public
Corporation, 5.
G.G.Raykunov.
Space activity for the development of 6.
G.G.Raykunov.
Current status and outlook for VOSTOCHNY spacedrome. Actual problems of
aviation and aerospace systems, No.1(32), v.16, 2011, 118-133. Gennady Gennadyevich Raikunov, Director General of the Federal State Unitary Enterprise TsNIIMash
(Korolev, Moscow Region), full member of the Russian Tsiolkovsky Academy of Cosmonautics,
Doctor of Tech. Sciences, Professor, Laureate of the Prize of the Russian Government,
Honoured Science worker, Honoured Mechanical Engineer of Russia, Honoured Test
Pilot of Space Hardware. |
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