This paper continues the series of publications on the history of overcoming “thermal barriers” in the space and rocket industry. “Thermal barrier” is an obstacle hampering the operation of individual assemblies, aggregates, or even the entire spacecraft in general due to off-the-scale thermal loads. First-generation crewed spaceships faced a serious danger from the “thermal barrier” caused by aerodynamic heating during atmospheric descent from a low-Earth orbit or during the return from the Moon with the velocity close to the second escape velocity. This paper briefly touches upon the history of choosing structural and layout solutions for the first-generation spaceships in the USSR and the USA. The most emphasis is given to specifics of creating thermal protection of reentry vehicles of spaceships. In the creation of thermal protection systems, the experience of creating warheads of long-range guided missiles played a very important part. The paper remarks on the efficiency of polymer composite materials as elements of ablative thermal protective coatings. Characteristics of descent vehicles of different generation spaceships are compared.

1.
S. V.
Reznik
and
P. V.
Prosuntsov
, “
History and experience of overcoming thermal barriers in rocket and space technology: 1. Ballistic missiles
”,
IOP Conf. Series: Materials Science and Engineering
971
052047
(
2020
).
2.
V. N.
Bobkov
,
V. V.
Vasil'ev
,
E. K.
Demchenko
 et al.,
ed K. P.
Feoktistov
, Space vehicles (
Voenizdat
,
Moscow
,
1983
).
3.
K. P.
Feoktistov
,
But we made rockets. Memoirs and reflections of a cosmonaut-researcher
(Vremya, Moscow,
2005
.
4.
V.
Bobkov
,
Krul'ya Rodini
4
4-5
; 6
24
25
(
1991
).
5.
I. B.
Afanasyev
,
Yu. M.
Baturin
,
A. G.
Belozersky
 et al., World crewed cosmonautics. History. Technic. People (
RTSoft
,
Moscow
,
2005
).
6.
V. E.
Gudilin
and
L. I.
Slabkiy
,
Rocket and Space Systems (History. Development. Prospects)
(Moscow,
1996
).
7.
W.
Von Braun
,
F. I. III.
Ordway
and
D.
Dooling
, History of Rocketry and Space Travel (
Thomas Y. Crowell Co
,
New York
,
1986
).
8.
R. D.
Launius
and
D. R.
Jenkins
, Coming Home: Reentry and Recovery from Space (
NASA
,
DC, Washington
,
2011
)
9.
T. A.
Heppenheimer
 Facing the Heat Barrier: a History of Hypersonics (
NASA, DC
,
Washington
,
2007
) .
10.
G. G.
Kulish
,
G. N.
Tovarnykh
,
V. V.
Trofimov
and
S. V.
Tsvetkov
, The Soyuz spacecraft: An album of designs, diagrams, drawings (
Bauman MSTU Publ. house
,
Orevo
,
2002
).
11.
V. A.
Romanenkov
, “
Development of technological means for the production of heat-protective coatings of spacecraft with improved characteristics
”. Ph.D. thesis Bauman MSTU,
2019
.
12.
R. B.
Erb
and
S.
Jacobs
, “Entry performance of the Mercury spacecraft heat shield Proc. The Heat Protection” in
Session of the American Institute of Aeronautics Entry Technology Conference
(
Williamsburg - Hampton
,
Virginia
, October 12 – l6,
1964
).
13.
B. C.
Hacker
and
J. M.
Grimwood
, On the shoulders of titans: a history of project Gemini (
NASA
,
DC, Washington
,
1977
).
14.
P. E.
Bauer
and
D. L.
Kummer
,
J. Spacecraft and Rockets
3
(
10
)
1495
1500
(
1966
).
15.
D. V.
Coplan
B V and
R. W.
King
, “Applying the ablative heat shield to the Apollo spacecraft” in
Proc. 4-th Space Congress
(
Cocoa Beach
, March 4,
1967
).
16.
B. R.
Erb
,
D. H.
Greenshields
,
L. T.
Chauvin
 et al.,
J. Spacecraft and Rockets
7
(
6
)
727
34
(
1970
).
17.
I. I.
Khamits
,
I. M. Filippov, L. S. Burylov et al
.,
Space Engineering and Technologies
2
(
13
)
23
33
(
2016
).
18.
M. M.
Cohen
, “
First Mars habitat architecture
” in
AIAA Space 2015 Conference & Exposition
(Pasadena, California, August 31 – September 2,
2015
) AIAA 2015-4517.
19.
S. K.
Krikalev
,
J. A.
Saprykin
,
Crewed space flights
1
(
18
)
47
62
(
2016
).
20.
T.
Cichan
,
S.
Bailey
,
A.
Burch
A and
N.
Kirby
, “
Concept for a crewed lunar lander operating from the lunar orbiting platform-gateway
” in
Proc. 69-th Int. Astronautical Congress (IAC)
(Bremen, Germany, 1-5 October
2018
) IAC-18.A5.1.4x46653.
21.
I. I.
Khamits
,
Russian Space
17
4
7
(
2020
).
22.
V. V.
Gorskii
and
A. V.
Zaripova
,
High Temperature
52
230
234
(
2014
).
23.
V. V.
Gorsky
, Theoretical Basis of Calculating Ablative Thermal Protection (
Nauchny Mir Publ
.,
Moscow
,
2015
).
24.
P. V.
Prosuntsov
,
A. V.
Shulyakovskii
and
N. Y.
Taraskin
,
J. Engineering Phys. and Thermophys
90
(
1
)
110
116
(
2017
).
25.
S. V.
Reznik
,
P. V.
Prosuntsov
and
K. V.
Mikhaylovskiy
,
MATEC Web of Conferences
224
,
03019
(
2018
).
26.
S. V.
Reznik
,
P. V.
Prosuntsov
and
K. V.
Mikhaylovskii
K V,
J. Eng. Phys. Thermophy
92
(
1
)
89
94
(
2019
).
27.
S. V.
Reznik
,
A. F. Kolesnikov, P. V. Prosuntsov et al
.,
J. Eng. Phys. Thermophy
92
(
2
)
306
313
(
2019
).
28.
W. J.
Koenig
,
M.
Stewart
and
R.F.
Harris
R F “
Orion heat shield manufacturing producibility improvements for the EM-1 flight test program
” in
2019 IEEE Aerospace Conference
.
This content is only available via PDF.
You do not currently have access to this content.