The Advanced Processor Technologies Research Group

Linda Brackenbury: publications
- Early stopping turbo decoders: a high-throughput, low-energy bit-level approach and implementation
- System-on-Chip Design and Implementation
- Pre-processing of Convolutional Codes for Reducing Decoding Power Consumption
- No-Handshake Asynchronous Survivor memory Unit for a Viterbi Decoder
- Lowering power in an experimental RISC processor
- Design and implementation of an energy efficient, parallel, asynchronous DSP
- Energy efficient functional unit for a compute-intensive asynchronous DSP.
- Energy efficient functional unit for a parallel asynchronous DSP.
- An Asynchronous, Iterative Implementation of the Original Booth Multiplication Algorithm
- Design of asynchronous function unit & software development tools for a low-power DSP.
- Functional Unit for Low-Power DSP Architecture
- CADRE: an Asynchronous Embedded DSP for Mobile Phone Applications
- Low power asynchronous DSP for digital mobile phones.
- Applying asynchronous techniques to a Viterbi decoder design
- Combining SOI Technology and Asynchronous Design Techniques for Power Reduction.
- A simulation study to quantify the advantages of silicon-on-insulator (SOI) technology for low power
- CADRE: A Low-Power, Low-EMI DSP Architecture for Digital Mobile Phones
- A Low-Power Self-Timed Viterbi Decoder
- Exploiting Typical DSP Data Access Patterns and Asynchrony for a Low Power Multiported Register Bank
- The Optical Encryption of Digital Data
- Exploiting Asynchronous Self-Timed Techniques on SOI Technology for Low Power
- An Asynchronous Viterbi Decoder
- A low-power asynchronous DSP architecture for digital mobile phone chipsets
- An Instruction Buffer for a Low-Power DSP
- Power reduction in self-timed circuits using early-open latch controllers
- Reconfigurable Latch Controllers for Low Power Asynchronous Circuits
- Re-configurable Latch Controllers for Low Power Asynchronous Circuits
- Optical solution to the Lee algorithm by use of symbolic substitution
- Differential register bank design for self timed differential bipolar technology
- Design and modelling of a high performance differential bipolar self-timed microprocessor
- Transforming Architectural Models Into High Performance Concurrent Implementations
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