Future Satcom systems will be required to provide Internet at high capacity to an increasing number of users. Because of demanding applications the throughput should approach the Tb/s. To achieve such a data rate, large bandwidths are required. So considering spectrum congestion below 15 GHz, communications should use Ka and Q/V bands. In those frequency bands, the signal is strongly affected by propagation impairments occurring in the troposphere. Attenuation (due to gas, clouds and rain), scintillation and depolarization are the predominant phenomena. To mitigate this fading, some techniques have been developed like ULPC (Uplink Control Power), site diversity or ACM (Adaptive Coding and Modulation). A novel propagation impairment mitigati...
Next-generation satellite systems are expected to provide an overall capacity of Tbit/s, whereby the...
Next-generation satellite networks will build on smart gateway diversity (SGD) architectures based o...
peer reviewedExploiting transmit diversity amid a high number of multiple gateways (GW) is a new res...
To reach the terabit per second of throughput, telecommunication satellites cannot make use of frequ...
This paper addresses the Smart Gateway diversity scheme to be employed in future High Throughput Sat...
The future generation of High Throughput Satellite (HTS) for broadband distributed user access is st...
peer reviewedDesign of high bandwidth and reliable feeder links is central towards provisioning new ...
Currently, it is estimated that the traffic demand through satellites will be 1 Tbps by 2020 and it ...
peer reviewedA main challenge towards realizing the next generation Terabit/s broadband satellite co...
The exploitation of Q/V-band will boost the capacity of High-Throughput Satellites (HTS) but, on the...
This paper studies the use of W band in a future high throughput satellite (HTS) system alongside th...
The short-term scenarios of High Throughput Satellite (HTS) systems foresee the exploitation of (cur...
Next-generation satellite systems are expected to provide an overall capacity of Tbit/s, whereby the...
Next-generation satellite networks will build on smart gateway diversity (SGD) architectures based o...
peer reviewedExploiting transmit diversity amid a high number of multiple gateways (GW) is a new res...
To reach the terabit per second of throughput, telecommunication satellites cannot make use of frequ...
This paper addresses the Smart Gateway diversity scheme to be employed in future High Throughput Sat...
The future generation of High Throughput Satellite (HTS) for broadband distributed user access is st...
peer reviewedDesign of high bandwidth and reliable feeder links is central towards provisioning new ...
Currently, it is estimated that the traffic demand through satellites will be 1 Tbps by 2020 and it ...
peer reviewedA main challenge towards realizing the next generation Terabit/s broadband satellite co...
The exploitation of Q/V-band will boost the capacity of High-Throughput Satellites (HTS) but, on the...
This paper studies the use of W band in a future high throughput satellite (HTS) system alongside th...
The short-term scenarios of High Throughput Satellite (HTS) systems foresee the exploitation of (cur...
Next-generation satellite systems are expected to provide an overall capacity of Tbit/s, whereby the...
Next-generation satellite networks will build on smart gateway diversity (SGD) architectures based o...
peer reviewedExploiting transmit diversity amid a high number of multiple gateways (GW) is a new res...