in ,

Construction of the X / S band for the mission control center Nigeriasat-2: news : Nigerian Education


Construction of an X / S band for the Nigeriasat-2 mission control center and validation of the data from the satellite


A fully automated X / S-Band Mission Control Center (MCC) for the Nigeriasat-2 (N2) and Nigeriasat X (NX) satellites were built in Abuja. The construction of the customer center consisted of installing antenna and computer systems of a suitable size, which were used to control the entire satellite mission. The N2 / NX customer center consists of three main segments: the ground station (GS) for direct communication with the satellite, the mission control suit (MCS) for mission control and satellite telemetry and the mission planning system (MPS). It is used for satellite imaging tasks, data preprocessing and archiving .

T.The spatial image data obtained from the Abuja and Enugu MCC from the N2 and NX satellites was of specified quality with resolutions of approximately 5 m and 22 m, respectively. A comparative analysis of N2 and NX of geospatial data about the state of Abuja and Enugu and data obtained independently of SPOT 5 and Landsat ETM with similar capabilities showed significant similarities in terms of resolution and accuracy of the geographic position.


Early astronomers studied planet bodies and then developed beliefs, projections, and even scientific beliefs, that understanding the sun and planet bodies enables people to truly understand the earth in which we live. The search for the phenomena of the earth, the complexity of their nature, simple and complex. The interactions of its numerous features, among other things, provided great seductive impulses for the development of various ground-based devices and methods for studying and understanding other planetary bodies (Gruntman, 2004).

Advances in science have invariably led to the development of better techniques such as remote sensing for observing the Earth from space. Remote sensing technologies and techniques such as aerial photography and space observatories (satellites) have contributed to better information about the earth (Gleason et al. 2004). Remote sensing consists of using non-in-situ methods to view, measure and / or observe features of interest that cannot be seen with the naked eye.

Also used in remote locations that are physically inaccessible to humans or too large to explore or visit in time cost efficient Wise. Remote sensing devices use physical laws to “see” energy and spectral signatures of features across the electromagnetic (EM) spectrum or waves (both generated and induced) of different light and energy wavelengths (spectrum). The part of the EM spectrum that is visible to the human eye is a small band in the range from 400 nm to 700 nm.


Abdullah M., Zain AFM, Ho YH & Abdullah S. (2009): TEC and scintillation
Stud of the Equatorial Ionosphere, a monthly campaign about Sipitang and Parit Raja
Stations, Malaysia. American Journal of Engineering & Applied Sciences 2 (1), 44 – 49,
ISSN 1941-7020.

Adimula IA, Falaiye OA, Willoughby AA (2005): Effects of rain on
Microwave and satellite communications in equatorial and tropical regions, Nigerians
Magazine for physics.

Ajayi GO, Ofochie EBC (1983): Some features of the tropical precipitation rate
by Ile-Ife for microwave and millimeter wave applications, Journal of Climate &
Applied meteorology.

Ajayi GO (1990): Some aspects of tropical precipitation and their effects on
Microwave propagation. International Satellite Communication Journal, 8 (3) 163 –
172, Journal of Climate and Applied Meteorology.

Anderson JR, Hardy EE, Roach TJ, Whitmer RE (1976): Land Use and
Land cover classification system for use with remote sensor data, US Geologycal.
Survey. Porridge. 964; US Gov. Print. Office: Washington DC.

Angepat S (2005): Ground station selection and feasibility analysis. final
Report to the Carleton University Spacecraft Design Project.

Aro T (1982): The atmosphere of physics and the physics of the atmosphere. The
7th inaugural lecture, Ilorin University, Kwara, Nigeria.

Ayantunji BG, Mai-unguwa H., Adamu A., Orisekeh K. (2013): Tropospheric
Influences on Satellite Communication in a Tropical Environment: A Case Study by
Nigeria, International Journal of Engineering and Innovative Technology (IJEIT),
Volume 2 Issue 12.

Barry RM, Nel RC (2002): Satellite site of the University of Stellenbosch
Station operation and future plans. IEEE Africon.

Bartsch A., Trofaier AM, Hayman A., Sabel D., Schlaffer S., Clarke DB,
Blyth E. (2012): Detection of Open Water Dynamics with Envisat ASAR to support
Modeling the land surface in high latitudes, ESA Journal on Earth Observation.

Join over 500,000 readers online now!



COPYRIGHT WARNING! Contents on this website may not be republished, reproduced or passed on in whole or in part without the appropriate admission or confirmation. All content is protected by DMCA.

The content of this website is published with good intentions. If you have this content and believe that your copyright has been violated or breached, please contact us at [[email protected]]to file a complaint and action is taken immediately.

Note: We are not the author of this content. For the Authentic and complete version,
Check its Original Source

The FCA updates measures to protect pensioners from defined benefit plans : SME

Longi pasta on the packaging of the world Packaging Design