With the increase in the cost of production of satellites and the drastic increase in the amount of space junk getting accumulated, small satellites is bound to have a major role in satellite technology in the mere future. The altitude of a small satellite in low earth orbit is between 15x103m to 106m.[25] This altitude starts at thermosphere and extends to the outer limits of the atmosphere and below the van Allen radiation belts. The satellite will be exposed to radiations such as solar, earth albedo and earth infrared radiations[21]. Current technology uses active systems like fluid loops and passive protection such as Multilayer Insulation Blankets(MLI) and insulation paints to control the temperature variations. This paper proposes a method to combine the existing technology of thermal control with the utilization of Aerogel and Graphene. Aerogel has a very low thermal conductivity which can be implemented for the insulator sheets for satellites and graphene can be used in fluid loops due to its excellent thermal property. These materials also possess lower densities compared to traditional alternatives used in satellites and thus can prove to be vital role in thermal stability of small satellite in the satellite development field.[26][30]

1.
Katelyn Elizabeth
Boushon
, “
Thermal analysis and control of small satellites in low Earth orbit
,,”
Scholars’ Mine
,
2018
.
2.
Isabel
PerezGrande
,
Angel
Sanz-Andrez
and
Carmen
Guerra
,
Gustavo
Alanso
., “
Analytical study of the thermal behavior and stability of a small satellite
,”
Science Direct
,
2009
.
3.
Volodymyr
Baturkin
, “
Micro-Satellites Thermal Control Concepts and Components
,”
Science Direct
,
2005
.
4.
Elwood
Agasid
,
Roland
Burton
,
Roberto
Carlino
,
Gregory
Defouw
,
Andres
Dono
Perez
,
Arif Göktuǧ;
Karacalıoğlu
,
Benjamin
,
Abraham
Rademacher
,
James
Schalkwyk
,
Rogan
Shimmin
,
Julia
Tilles
and Sasha,
State of The Art Of Small Spacecraft Technlogy,
NASA,
2020
.
5.
Philippe
Bertheux
,
Emmanuel
Texier
,
Bernard
Jacqué
and
Jean-Marie
Seguin
, “
Deployable Radiators
,”
Peagasus
,
2002
.
6.
Araujo
,
Ernesto
and
Coelho
,
Leandro
. , “
Piecewise fuzzy reference-driven takagisugeno modeling based on particle swarm optimization (PSO)
,”
ResearchGate
,
2006
.
7.
D.
Kasaboski
, “
Spacecraft Thermal Design Concept for the NASA Innovative Advanced Concepts project: Magnetic Architectures and Active Radiation Shielding study Phase II
,”
NASA
,
2014
.
8.
J. d. L.
Fuente
.,
Properties of Graphene.
9.
D. Y.
Samad
, “
Satellite Heat Pipes
,”
Graphene Flagship.
10.
Qianb
Su
,
Shinan
Chang
,
Yuanyuan
Zhao
,
Haikun
Zheng
and
Chaobin
Dangb
, “
A review of loop heat pipes for aircraft anti-icing applications
,”
ScienceDirect
,
2018
.
11.
IUPAC
, “
Definitions of terms relating to the structure and processing of sols, gels, networks, and inorganic-organic hybrid materials
,
Goldbook
,
2007
12.
Nadiir
Bheekhun
,
Abd. Rahim Abu
Talib
and
Mohd Roshdi
Hassan
, “
Aerogels in
,”
Hindawi
,
2013
.
13.
Wikipedia
, “
Aerogel
,” [Online]. Available: https://en.wikipedia.org/wiki/Aerogel.
14.
Michelle
Starr
,
Graphene aerogel is the new world’s lightest substance
,
2013
.
15.
Yehong
Cheng
, Shanbao,
Ping
Hu
,
Guangdong
Zhao
,
Yongxia
Li
,
Xinghong
Zhang
and
Wenbo
Han
,
Enhanced mechanical, thermal, and electric properties of graphene aerogels via supercritical ethanol drying and high-temperature thermal reduction
,
Scientific Reports
,
2017
.
16.
Hirofumi
Kawakubo
.,
Hardware Development of a Microcontroller Board for a Small Satellite
17.
Meng
Chen
, “
The Deep Sea Water and Heat Energy of Thermoelectric Generation Study
,”
The Electrochemical Society
,
2019
.
18.
NASA
,
Advanced Thermoelectric Technology: Powering Spacecraft and Instruments to Explore the Solar System
,
NASA
,
2019
.
19.
AZO Clean Tech
,
How Can Thermo Electrical Generators Help the Environment?
,
AZO Clean Tech
,
2019
20.
Suvit
Punnachaiya
and
Suvit
Kovitcharoenkul
Paiboon Decho
Thong-Aram
,
Development of low grade waste heat thermoelectric power generator
,
CAbDirect
,
2010
.
21.
Kuruba
,
Padmaja
and
Ashok V.
Sutagundar
, “
Emerging Trends of Space-Based Wireless Sensor Network and Its Applications
.,”
2017
.
22.
M. H.
Pujari
,
A. V.
Sutagundar
and
P.
Kuruba
, “
Remote information gathering in wireless satellite based sensor networks
,”
International Conference on Computing Methodologies and Communication
,
2017
.
23.
Padmaja
Kuruba
and
Ashok V.
Sutagundar
, “
Space Based Wireless Sensor Network: A Survey, Internet of Things and Cloud Computing
,”
Advances in Cloud and Internet of Things
,
2017
.
24.
Ashok V.
Sutagundar
,
Padmaja
Kuruba
, and
Mahantesh N.
Birje
, “
Inter-Orbital Cluster Formation and Routing in Satellite Sensor Network
,,”
Advances in Cloud and Internet of Things
,
2017
.
25.
J.
Bouwmeester
and
J.
Guo
, “
Survey of worldwide pico-and nanosatellite missions, distributions and subsystem technology
,”
Acta Astronautica
,
2010
.
26.
T.
Xiang
,
T.
Meng
,
H.
Wang
,
K.
Han
and
Z.-H.
Jin
, “
Design and on-orbit performance of the attitude determination and control system for the zdps-1a pico-satellite
,,”
Acta Astronautica
,
2012
.
27.
Smys
,
S.
,
Joy
Chen
, and
Subarna
Shakya
, eds. “
Preface: 2nd International Conference on Inventive Research in Material Science and Technology (ICIRMCT 2019)
.” In
AIP Conference Proceedings
, vol.
2087
, no.
1
, p.
010001
.
AIP Publishing LLC
,
2019
.
28.
T.
Sun
,
L.-J.
Chen
,
C.-C.
Han
and
M.
Gerla
,, “
Reliable sensor networks for planet exploration
,”
IEEE
,
2005
.
29.
V.
Andreev
,
V.
Mikhailov
,
V.
Solovey
and
V.
Kainov
, “
Cluster launches of small satellites on dnepr launch vehicle
,”
2001
.
30.
V. C.
Gungor
,
B.
Lu
and
G. P.
Hancke
, “
Opportunities and challenges of wireless sensor networks in smart grid
,”
IEEE
,
2010
.
This content is only available via PDF.
You do not currently have access to this content.