Слайд 1History of Cosmonautics in Russia
From Philosophy, ideas and first steps
to the
last results and beyond
Слайд 2Fathers of the cosmonautics
On the next slide the one can
see
the cover of the book
From the Earth to the
Moon
written by the famous French author Jules Verne in 1862
Since then it is the most popular science fiction book in Russia and may be in the world
It has inspired a lot of people by ideas of space flight
Following slides give his the portrait together with portraits of KonstantinThiolkvskyi - philosopher of cosmonautics and Fridrikh Tsander – pioneer of astrodynamics in Russia
Слайд 7V-2 the first ballistic missile developed in nazi Germany
More than
thousand of them were used to attack London during WW2
Слайд 9Cold war and Russian response to American A-bomb
After American test
of A-bombs in Hiroshima and Nagasaki at the end of
WW2 in the USSR the symmetric response was presented in late forties and early fifties: atomic and thermonuclear (hydrogen) bombs
To deliver them to the target, as a tool the intercontinental ballistic missile capable to carry more than five tons “payload” has been developed, so called “semerka” (R-7) rocket
It could reach any point in US without any possibility to intercept it
Слайд 12Critical problems solutions
The rocket was two staged with kerosene-oxygen propellant
It was to be developed in very short terms
So the
approach was instead overcoming the difficulties it was chosen to bypass them:
Both stages were started simultaneously on the ground, so it was not necessary to develop the methods to start engine in weightlessness and vacuum; instead of development of big cameras the combinations of groups from four with separate steering ones were chosen, etc.
The launch mass was 278 tons and it can deliver 5.4 t of ”payload” to 8000 km distance.
First successful flight was in 1957
Слайд 14Separation of the first stage consisting from four blocks. Second
stage (central block) operates uninterrupted from the liftoff
Before separation procedure
the engines of the first stage are cut off
Слайд 15Engines clusters mounted on the stages
Слайд 16Rd-107 rocket engine for side block of “semerka”
Слайд 17Engines cluster
32 rocket engine cameras lift launch vehicle into space
Слайд 21Launch vehicle “Vostok”
The third stage (Block E)
was added.
“Hot” separation was
used.
Hatch above is
for cosmonaut
emergency
escape
Слайд 22Luna-1 – first man made device reached extra-terrestrial space body:
Moon (1959)
It was direct flight without parking orbit and without
correction maneuvers
Слайд 23The Third stage for the first Lunar missions (Block E)
For
engine
start the “hot”
separation
was used, i.e.
engine ignition
before separation
Слайд 24Block E the third stage
Truss between stages allows hot gas
stream
Shield protects the second stage
Слайд 25Lunar fly by mission (Luna-3, 1959)
The first back side Moon
photo was transmitted to the
Earth
Слайд 268K78 – the first Russian launcher with “cold” start of
upper stage Molniya
With development of
this stage solar system
and its
planets became
accessible and Moon
approached so close
that missions of Moon
soil samples return
missions
could be realized
Liquid propellant engines
cold start became
doable by applying for
this solid motors.
Слайд 27Luna-9 mission to the Moon surface (1966)
On the right descending
and landing module after soft landing and systems deployment
Key operations
rk
Слайд 28Luna-10 mission to the Moon satellite orbit (1966)
Operations: tracking, correction
maneuvers, orientation, braking maneuver, satellite separation
Слайд 29Lunar soil samples return spacecraft Luna-16 (1970) with landing module,
ascending module and reentry capsule
Key instrument is drilling device
Слайд 31“Cosmonaut Gagarin” ship as powerful sea based command and telemetry
station
14 ships have been equipped by antennas and receiving/transmitting devises
to compensate
lack required points for global coverage on the territory of Russia
Слайд 32Geostationary Luch communication satellite for uninterrupted radiolink with near Earth
spacecraft
Thus in for contemporary tasks the problem was resolved by
introducing in regular service several space communication satellites
Слайд 33Difficult way to geostationary orbit from Russian territory
Слайд 34Sea launch
Launch from equator to geostationary orbit allows to increase
payload mass by more than 50% with respect to the
launch from Baikonur. For this Zenith launcher with Block-DM as upper stage was successfully used.
Слайд 35Proton start
Initially was developed
for military purposes, but
very soon modified for
Scientific
and commercial
Launches.
On International Market
is operated by ILS
International Launch
Service
Слайд 36Luna landing module intended for Lunar sample return
Landing module with
returning to the Earth spacecraft and atmosphere reentry module (at
the up)
Слайд 37Lunar reentry module after returning to the Earth
Three missions with
Moon soil samples delivery to the Earth were successful with
total mass about 0.5 kg. The final mission in 1976.
Antennas for search of the module after landing are seen
Слайд 38Russian Moon rover “Lunohod-1” delivered to the Moon by Luna-17
(1970)
The rover explored vast area of the Moon controlled by
ground base operator using radio link with it
Слайд 39Moon zond to fly by the Moon with returning back
to the Earth and consequent atmosphere reentry
Was developed as prototype
for piloted Moon program (L-1)
The last flight (without crew) has been fulfilled in October 1970
under name Zond-8. Then program was stopped.
Слайд 41N-1 huge (3000 t, 30 rocket engines total thrust 4500t
)
launch vehicle
for Moon piloted mission
Four un successive
launches
have been
attempted
Слайд 42The maximum diameter of the block is 16.8m (dimensions taken
by stabilizers are 22.33m) with the height of 30.1m. The
block houses 30 engines with ground thrust of 153 tf each
Слайд 45Energia launcher and Buran multiple space ship
Слайд 47Lunar habitable module for flight on Moon satellite orbit and
return to the Earth and reentry into atmosphere
It was part
of Russian men flight to the Moon in framework of N1-L3 project
Слайд 48Lunar landing module
Module was intended for the land onto Lunar
surface from Moon satellite orbit ,returning back to the orbital
module and
docking with it
Слайд 49Russian nuclear rocket engine
RD-0410
It was developed in Voronez (1965
-1985) and
tested separately from nuclear
reactor.
Propellent: Liquid hydrogen
Thrust 3.95t
Heat power 196
Mega Watt
Fuel 80% concentration U235
Radiation protection shield mass 2t
Слайд 50Comparison characteristics of the Russian (Soviet) nuclear rocket engine (RD-0410)with
American one (NERVA)
Слайд 52Scheme of contemporary nuclear energy and transportation unit
Two variants of
heat dumping: by metal radiators (left) and by recuperated drops
Слайд 53Characteristics of energy and transportation unit
Слайд 54Spacecraft to resume Russian Lunar program
Luna-25 and Luna-27 are intended
to explore polar regions of the Moon surface, Luna-26 is
to explore Moon from the satellite orbit
Слайд 55Program of the Venus exploration 1961-1986
The first spacecraft Venera-1 was
launched to the closest vicinity of the Venus in 1961.
It flied by Venus at the distance of 100000km.
The first spacecraft reached surface of the Venus was Venera-3. It happened in 1966.
First measurements in Venus atmosphere were done by Venera-4 in later in 1966. It was determined that the temperature and pressure of atmosphere of Venus near surface are several times higher than it was supposed before direct measurements. So the first spacecraft could not reach the surface because they have been destroyed in conditions of real environment. After deep modification of the landing module in order it can withstand the temperature up to 530 degrees Centigrade and 150 atmosphere pressure Venera-7 spacecraft has reached the surface of the Venus and executed the scientific measurements on the surface during 23 minutes,
During further missions the photos of the surface were done and exploration of the Venus soil samples received by drilling. Radio mapping of Venus surface was done from the satellite orbit/
18 missions to Venus have been fulfilled, the last in 1986 with dropping landing modules on the way to Halley comet
Слайд 56VEGA spacecraft for mission to Venus and Halley comet
Group from
two ones have been launched. The third one was European
Giotto spacecraft
During Venus fly by the landing modules were delivered to the surface and two balloons traveled in Venus atmosphere. Then interplanetary spacecraft reached Halley coma (March 1986)
Слайд 57Landing module of Venera-Halley mission (1986)
In the sphere there
are the instruments which are intended to explore hostile Venus
atmosphere ( 470 C degrees of temperature and 90 atmosphere pressure)
Слайд 58Space radio telescope 10 meters diameter“Radioastron” now in flight
Radioastron is
intended for observations in the radio interferometer mode in pair
with ground telescope
Слайд 59Radioastron s/c with
folded antenna
Diameter of unfolded antenna
is 10m
S/c
is equipped by rocket
engines for orbital parameters
control and momentum
wheels
unloading.
Orbit is high elliptical with
apogee reaching 350000 km
height and perigee higher than
1000 km. So orbit parameters
corrections are applied to avoid
Close approaching to the Moon
Слайд 60Spectrum-Roentgen-Gamma spacecraft
Two telescope are mounted onboard for systematic review
of the sky in these wave bands
Слайд 61Millimitron space radio telescope
To be launched onto orbit into
vicinity of Solar-terrestrial collinear libration point in mid 2020
Слайд 62Orbit of SRG in solar-ecliptic coordinate system
Слайд 64ExoMars 2016 Trace Gas Orbiter and Descent and Entry Module
Descent
Module is shown after separation two day before entry
Слайд 65ExoMars Trace Gas Orbiter over the Mars
New technology to transfer
from high elliptical orbit to low circular one is planned
to be used:
successive aerodynamic braking in pericenter region
Слайд 66ExoMars 2016 spacecraft on transfer trajectory to Mars with descent
and landing module
It was launched by Proton-M launcher with Breez-M
upper stage on March 14 2016 and will arrive to Mars at October 19 2016.
Descent module is to be separated on October 16
Слайд 68Entry and descent module of ExoMars
Sequence of events during operations
for reaching Mars surface
Слайд 69ExoMars 2016 for relay the signal from to be launched
in 2020 Mars rover and surface station and for atmospehere
studies
The spacecraft is to be delivered onto Mars high elliptical satellite orbit on October 2016 and then by aerodynamic drag is to be transferred onto low orbit simultaneously with this
entry and descent module will reach Mars surface by direct entry
Слайд 70ExoMars 2020 Martian rover
Tests in lab
Слайд 71ExoMars 2020 Landing platform and Rover
After landing
the Rover will
leave
platform
for autonomous
voyage on
Mars surface
with radio link
supported
ExoMars 2016
orbiter
Слайд 72ExoMars transfer
trajectory
Start March 14
Arrival to Mars
October 19