TY - GEN
T1 - Implementation site diversity method on ka-band satellite to reduce the impact of rain attenuation in the tropics area
AU - Riza, P. Oxy
AU - Tanjung, K.
AU - Hendrantoro, G.
AU - Mauludiyanto, A.
PY - 2013
Y1 - 2013
N2 - Communications service current increases and needed allocation ribbon great frequency. Ka-band (Kurtz-above band) is the microwave band of the electromagnetic spectrum range between 26 GHz% u2013 40 GHz. Ka-band used on the satellite communication system is a 20 GHz (Downlink) and 30 GHz (Uplink). However, in tropical conditions such as Indonesia where the intensity of rainfall is high enough can cause the condition of the satellite communication systems will be muffled on the side of the receiver. One of the methods to overcome the impact of the rain attenuation are site diversity. Site diversity method is a method to the process of transmission of satellite ka-band to more than one earth station location. So the transmission signal communication will use the link that has the smallest rain attenuation which aims to guarantee that the rain attenuation occurs at the location of the first Earth station is not greater than the second Earth station location, and vice versa. Earth station locations used was the Perak station and Juanda station. The purpose of the use of site diversity for improving the signal to noise ratio (SNR). Application of the method of site diversity in satellite communication system resulted in the band ka-improved performance when compared to the communication systems communication systems without site diversity. It can be seen on probability 0,1 % SNR value on links with condition of Perak station downlink 4,349 db and uplink 0,09804 db, while using a technique selection combining produce the condition of SNR downlink 10,31 db and uplink 25,15 db.
AB - Communications service current increases and needed allocation ribbon great frequency. Ka-band (Kurtz-above band) is the microwave band of the electromagnetic spectrum range between 26 GHz% u2013 40 GHz. Ka-band used on the satellite communication system is a 20 GHz (Downlink) and 30 GHz (Uplink). However, in tropical conditions such as Indonesia where the intensity of rainfall is high enough can cause the condition of the satellite communication systems will be muffled on the side of the receiver. One of the methods to overcome the impact of the rain attenuation are site diversity. Site diversity method is a method to the process of transmission of satellite ka-band to more than one earth station location. So the transmission signal communication will use the link that has the smallest rain attenuation which aims to guarantee that the rain attenuation occurs at the location of the first Earth station is not greater than the second Earth station location, and vice versa. Earth station locations used was the Perak station and Juanda station. The purpose of the use of site diversity for improving the signal to noise ratio (SNR). Application of the method of site diversity in satellite communication system resulted in the band ka-improved performance when compared to the communication systems communication systems without site diversity. It can be seen on probability 0,1 % SNR value on links with condition of Perak station downlink 4,349 db and uplink 0,09804 db, while using a technique selection combining produce the condition of SNR downlink 10,31 db and uplink 25,15 db.
KW - Rain Atenuation
KW - Satelit Ka-Band
KW - Selection Combining
KW - Sigal to Noise Ratio
KW - Site Diversity
UR - http://www.scopus.com/inward/record.url?scp=84884838124&partnerID=8YFLogxK
U2 - 10.1109/ICTSS.2013.6588072
DO - 10.1109/ICTSS.2013.6588072
M3 - Conference contribution
AN - SCOPUS:84884838124
SN - 9781479901456
T3 - Proceedings - International Conference on ICT for Smart Society 2013: "Think Ecosystem Act Convergence", ICISS 2013
SP - 100
EP - 105
BT - Proceedings - International Conference on ICT for Smart Society 2013
T2 - 2013 International Conference on ICT for Smart Society 2013: "Think Ecosystem Act Convergence", ICISS 2013
Y2 - 13 June 2013 through 14 June 2013
ER -