Due to the hardware design of Galileo's Command and Data Subsystem (CDS), the channel code usable in an S-band (2290-2300 MHz) mission must include the NASA standard (7,1/2) convolutional code. Galileo's hardware encoder for the (15,1/4) code is not usable in S-band mode. However, the need for higher coding gain dictates the use of long constraint length convolutional codes. Theoretical results show how a large subclass of such codes is realizable by using a software encoder in the CDS cascaded with the hardware encoder for the NASA standard code
On day of the year 062, 1994, a prototype of the Deep Space Communications Complex Galileo Telemetry...
Channel and source coding theories are discussed. The following subject areas are covered: large con...
Full-spectrum combining (FSC) and complex-symbol combining (CSC) are two antenna-arraying techniques...
The Galileo mission was originally designed to investigate Jupiter and its moons utilizing a high-ra...
The Galileo spacecraft employs concatenated coding schemes with Reed-Solomon interleaving depth 2. T...
In a time-varying signal-to-noise ration (SNR) environment, symbol rate is often changed to maximize...
The Galileo spacecraft is currently on its way to Jupiter and its moons. In April 1991, the high gai...
A coding system under consideration for the Galileo S-band low-gain antenna mission is a concatenate...
Decoding results are described for long decoding runs of Galileo's convolutional codes. A 1 k-bit/se...
A Viterbi decoder, capable of decoding convolutional codes with constraint lengths up to 15, is unde...
In order to communicate reliably and to reduce the required transmitter power, NASA uses coded commu...
The Galileo low-gain antenna mission will be supported by a coding system that uses a (14,1/4) inner...
A method for obtaining the complete path enumerator T(D, L, I) of a convolutional code is described....
Convolutional codes have played and will play a key role in the downlink telemetry systems on many N...
The coding performance of the Probe-Orbiter-Earth communication link is analyzed and compared for se...
On day of the year 062, 1994, a prototype of the Deep Space Communications Complex Galileo Telemetry...
Channel and source coding theories are discussed. The following subject areas are covered: large con...
Full-spectrum combining (FSC) and complex-symbol combining (CSC) are two antenna-arraying techniques...
The Galileo mission was originally designed to investigate Jupiter and its moons utilizing a high-ra...
The Galileo spacecraft employs concatenated coding schemes with Reed-Solomon interleaving depth 2. T...
In a time-varying signal-to-noise ration (SNR) environment, symbol rate is often changed to maximize...
The Galileo spacecraft is currently on its way to Jupiter and its moons. In April 1991, the high gai...
A coding system under consideration for the Galileo S-band low-gain antenna mission is a concatenate...
Decoding results are described for long decoding runs of Galileo's convolutional codes. A 1 k-bit/se...
A Viterbi decoder, capable of decoding convolutional codes with constraint lengths up to 15, is unde...
In order to communicate reliably and to reduce the required transmitter power, NASA uses coded commu...
The Galileo low-gain antenna mission will be supported by a coding system that uses a (14,1/4) inner...
A method for obtaining the complete path enumerator T(D, L, I) of a convolutional code is described....
Convolutional codes have played and will play a key role in the downlink telemetry systems on many N...
The coding performance of the Probe-Orbiter-Earth communication link is analyzed and compared for se...
On day of the year 062, 1994, a prototype of the Deep Space Communications Complex Galileo Telemetry...
Channel and source coding theories are discussed. The following subject areas are covered: large con...
Full-spectrum combining (FSC) and complex-symbol combining (CSC) are two antenna-arraying techniques...