In this paper, the stages of the space experiment on the Russian segment of ISS are analysed. Purpose of work: to develop an economic model of the expenses for carrying out experiments on ISS on the example of space experiment “Magnetic 30-bioprinter”. On board of the ISS there are different types of scientific complexes that allow to perform experiments in microgravity conditions. This environment attracts many private companies, but the difficult to overcome barriers to the commercialization of space in Russia prevent possible cooperation and, consequently, potential profit for Russian space.Such cooperation will attract the profit necessary for Roscosmos State Corporation to create a decent competition for countries with their own space program, thereby improving the country’s economy. The first scientific study performed on board the ISS ordered by the Russian private organization “3D Bioprinting Solutions” showed the effectiveness of the transition to commercial space experiments. Based on the document establishing procedures for preparing, conducting, collecting, processing, storing and using experiment equipment, an economic model of the expenses for conducting experiments on ISS has been developed. The expense of carrying out experiments on ISS (Ce) is the sum of the cost of manufacturing equipment, training of astronauts, delivery to ISS, the cost of conducting the experiment on ISS. Two options were calculated: pessimistic and optimistic. Modeling of expenses for the experiment on ISS showed: 1. In the pessimistic scenario the expenses of “3D Bioprinting Solutions” company amounted to 28.305 million rubles. 2. In the optimistic scenario, the experiment turned out to be a public-private partnership. The federal space programme allocated funds for scientific experiments. In this case, the costs of “3D Bioprinting Solutions” amounted to 4.5 million rubles. A comparative analysis of the expenses of the space experiment supported by NASA and Roscosmos has been carried out.

1.
Ivanitskaya
,
V. V.
,
Tsvettsykh
,
A.V.
(
2017
).
Commercialization of private space projects
.
Actual problems of aviation and cosmonautics
,
3
(
13
). https://cyberleninka.ru/article/n/kommertsializatsiya-chastnyh-kosmicheskih-proektov
2.
Bowser
,
D. A.
, &
Moore
,
M. J.
(
2020
).
Biofabrication of neural microphysiological systems using magnetic spheroid bioprinting
.
Biofabrication
,
12
(
1
). doi:
3.
McElheny
,
C.
,
Hayes
,
D.
,
Devireddy
,
R.
(
2017
).
Design and Fabrication of a Low-Cost Three-Dimensional Bioprinter
.
Journal of Medical Devices-Transactions of the Asme
,
11
(
4
). doi:
4.
Maryniak
,
G.
(
2005
).
When will we see a Golden Age of Spaceflight?
.
SpacePolicy
,
21
(
2
),
111
119
.
5.
Seedhouse
,
E.
(
2013
).
SpaceX: making commercial spaceflight a reality
.
Springer Science & Business Media.
Doi:
6.
Curran
,
R.
,
Raghunathan
,
S.
, &
Price
,
M.
(
2004
).
Review of aerospace engineering cost modelling: The genetic causal approach
.
Progress in aero space sciences
,
40
(
8
),
487
534
.
7.
Prince
,
F. A.
(
2002
).
Why NASA’s management doesn’t believe the Cost Estimate
.
Engineering Management Journal
,
14
(
1
),
7
12
.
8.
Akimov
,
I. O.
,
Koryanov
,
V. V.
(
2018
).
Numerical Simulation of the Motion of an Unmanned Aerial Vehicle
. In
L. H.
Chen
&
Y.
Kondo
(Eds.),
2018
3rd International Conference on Design and Manufacturing Engineering
(Vol.
221
),
9.
Danhe
,
C.
,
&Koryanov
,
V. V.
(
2016
).
The study of the dynamics of the spacecraft landing on a celestial body with microgravity under different fixing conditions
. In
A.
Sikora
,
B.
Choi
, &
S.
Wang
(Eds.),
2016
1. International Conference on Measurement Instrumentation and Electronics
(Vol.
75
),
10.
3DToday
, “
the ISS Crew will take up 3D printing of living tissue for the first time early next year
”, (
2018
) https://3dtoday.ru/blogs/news3dtoday/the-crew-of-the-iss-for-the-first-time-will-be-engaged-in-3d-printing-/
11.
TechShotinc
., “
Advanced Space Experiment Processor
”, (
2018
) https://techshot.com/aerospace/technology/advanced-space-experiment-processor/
13.
15.
Koryanov
,
V. V.
,
Kokuytseva
,
T. V.
,
Toporkov
,
A. G.
,
Iljukhin
,
S. N.
,
Akimov
,
I. O.
,
Mohamado
,
N.
, &
Da-Poian
,
V.
(
2018
).
Concept development of control system for perspective unmanned aerial vehicles
. In
O.
Adiguzel
,
I.
McAndrew
,
Y.
Yokoi
, &
V.
Koryanov
(Eds.),
2017 Asia Conference on Mechanical and Aerospace Engineering
(Vol.
151
),
16.
Lysenko
,
L. N.
,
Koryanov
,
V. V.
,
Toporkov
,
A. G.
, &Ieee. (
2017
).
The Analysis of Possibility of Integration the Global Information Satellite Systems Second Generation with Regional Systems on the Basis of Modern Small and Micro Spacecrafts
. DOI:
17.
Ilyukhin
,
S. N.
,
Toporkov
,
A. G.
,
Koryanov
,
V. V.
,
Ayupov
,
R. E.
, &
Pavlov
,
N. G.
Actual aspects of control system development for advanced unmanned aerial vehicles
.
Inzhenernyyzhurnal: nauka i innovatsii.
DOI:
18.
Habib-Agahi
,
H.
,
Mrozinski
,
J.
, &
Fox
,
G.
(
2011
, March).
NASA instrument cost/schedule model Hamid Habib-Agahi
. In
2011 Aerospace Conference
(pp.
1
19
). IEEE.Doi:
19.
Valerdi
,
R.
(
2005
).
The constructive systems engineering cost model (COSYSMO)
.
UniversityofSouthernCalifornia
. 10.1002/j.2334-5837.2003.tb02601.x
20.
Remer
,
D. S.
, &
Buchanan
,
H. R.
(
2000
).
Estimating the cost for doing a cost estimate
.
International Journal of Production Economics
,
66
(
2
),
101
104
.
21.
Lillie
,
C. F.
, &
Thompson
,
B. E.
(
2008
, July).
Parametric cost estimation for space science missions
. In
Advanced Optical and Mechanical Technologies in Telescopes and Instrumentation
(Vol.
7018
, p.
701827
). InternationalSocietyforOpticsandPhotonics.
22.
Koelle
,
D. E.
(
1998
).
Cost Engineering-The new paradigm for space launch vehicle design
.
Journal of Reducing Space Mission Cost
,
1
(
1
),
73
86
.
23.
Crouch
,
G. I.
,
Devinney
,
T. M.
,
Louviere
,
J. J.
, &
Islam
,
T.
(
2009
).
Modelling consumer choice behavior in space tourism
.
Tourism Management
,
30
(
3
),
441
454
.
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