Abstract- This paper presents a novel high-speed maximum a posteriori (MAP) decoder architecture with optimized memory size and power consumption. Area and power consumption are both reduced significantly, compared to the state-of-the-art. The architecture is also capable of decoding recursive systematic convolutional codes which are the constituent codes of the revolutionary Turbo-Codes and related concatenation schemes. The architecture is highly scalable with respect to throughput, expanding its applicability over a wide range of throughput requirements (300 Mbit/s–45 Gbit/s and above)
The use of turbo codes enhances the data transmission efficiency and optimizes the performance of a ...
In this paper MAP (Maximum a Posteriori) algorithm in the turbo decoder has been modified to use wit...
A silicon efficient real-time approach to decode convolutional codes is presented. The algorithm is ...
Abstract—Iterative decoding of convolutional turbo code (CTC) has a large memory power consumption. ...
Abstract—Soft-input soft-output (SISO) maximum a-posteriori (MAP) decoders for convolutional codes (...
The symbol-by-symbol maximum a posteriori (MAP) known also as BCJR algorithm is described. The logar...
The effect of parallelism on Bit Error Rate (BER) performance of Turbo Code (TC) and Self Concatenat...
A maximum a posteriori probability (MAP) detector based on a forward only algorithm with high throug...
Abstract—This paper presents the Max Log Maximum a Posteriori (MAX Log MAP) architecture which influ...
In this paper we present the VLSI implementation of a high-throughput enhanced Max-log-MAP processor...
In this paper, a methodology to compare highthroughput turbo decoder architectures, is proposed. Th...
This paper presents a new efficient normalization VLSI architecture for MAP decoder which can provid...
In the advent of very high data rates of the upcoming 3G long-term evolution telecommunication syste...
The process of turbo-code decoding starts with the formation of a posteriori probabilities (APPs) fo...
In today̕s world, high speed and accurate data transmission and storage is necessary in many fields ...
The use of turbo codes enhances the data transmission efficiency and optimizes the performance of a ...
In this paper MAP (Maximum a Posteriori) algorithm in the turbo decoder has been modified to use wit...
A silicon efficient real-time approach to decode convolutional codes is presented. The algorithm is ...
Abstract—Iterative decoding of convolutional turbo code (CTC) has a large memory power consumption. ...
Abstract—Soft-input soft-output (SISO) maximum a-posteriori (MAP) decoders for convolutional codes (...
The symbol-by-symbol maximum a posteriori (MAP) known also as BCJR algorithm is described. The logar...
The effect of parallelism on Bit Error Rate (BER) performance of Turbo Code (TC) and Self Concatenat...
A maximum a posteriori probability (MAP) detector based on a forward only algorithm with high throug...
Abstract—This paper presents the Max Log Maximum a Posteriori (MAX Log MAP) architecture which influ...
In this paper we present the VLSI implementation of a high-throughput enhanced Max-log-MAP processor...
In this paper, a methodology to compare highthroughput turbo decoder architectures, is proposed. Th...
This paper presents a new efficient normalization VLSI architecture for MAP decoder which can provid...
In the advent of very high data rates of the upcoming 3G long-term evolution telecommunication syste...
The process of turbo-code decoding starts with the formation of a posteriori probabilities (APPs) fo...
In today̕s world, high speed and accurate data transmission and storage is necessary in many fields ...
The use of turbo codes enhances the data transmission efficiency and optimizes the performance of a ...
In this paper MAP (Maximum a Posteriori) algorithm in the turbo decoder has been modified to use wit...
A silicon efficient real-time approach to decode convolutional codes is presented. The algorithm is ...