General purpose computer designers have recently begun adding cores to their processors in order to increase performance. For example, Intel has adopted a homogeneous quad-core processor as a base for general purpose computing. PlayStation3 (PS3) game consoles contain a multicore heterogeneous processor known as the Cell, which is designed to perform complex image processing algorithms at a high level. Can modern image-processing algorithms utilize these additional cores? On the other hand, modern advancements in configurable hardware, most notably field-programmable gate arrays (FPGAs) have created an interesting question for general purpose computer designers. Is there a reason to combine FPGAs with multicore processors to create an FPGA ...
Processor architecture is continuously evolving. As the trend predicted by Moore's law is nearing it...
Field Programmable Gate-Arrays (FPGA) containing one or more embedded processor cores within the FPG...
As we continue to be able to put an increasing number of transistors on a single chip, the answer to...
General purpose computer designers have recently begun adding cores to their processors in order to ...
Modern advancements in configurable hardware, most notably Field-Programmable Gate Arrays (FPGAs), ...
Nowadays, processors alone cannot deliver what computation hungry image processing applications dema...
Microprocessors have been the dominant devices in general-purpose computing for the last decade. How...
The goal of this project is to explore the feasibility of using field programmable gate arrays (FPGA...
Recongurable hardware, in the form of Field Pro-grammable Gate Arrays (FPGAs), is becoming increasin...
Processors for high-performance computing applications are generally designed with a focus on high c...
The rising demand for high-performing embedded systems made FPGAs ubiquitous. Combining the strength...
Floating-point computing with more than one TFLOP of peak performance is already a reality in recent...
Reconfigurable hardware devices, such as Field Programmable Gate Arrays (FPGAs), can be used to spee...
Real-time image and video processing is becoming increasingly important in many applications. A high...
As CPU clock frequencies plateau and the doubling of CPU cores per processor ex-acerbate the memory ...
Processor architecture is continuously evolving. As the trend predicted by Moore's law is nearing it...
Field Programmable Gate-Arrays (FPGA) containing one or more embedded processor cores within the FPG...
As we continue to be able to put an increasing number of transistors on a single chip, the answer to...
General purpose computer designers have recently begun adding cores to their processors in order to ...
Modern advancements in configurable hardware, most notably Field-Programmable Gate Arrays (FPGAs), ...
Nowadays, processors alone cannot deliver what computation hungry image processing applications dema...
Microprocessors have been the dominant devices in general-purpose computing for the last decade. How...
The goal of this project is to explore the feasibility of using field programmable gate arrays (FPGA...
Recongurable hardware, in the form of Field Pro-grammable Gate Arrays (FPGAs), is becoming increasin...
Processors for high-performance computing applications are generally designed with a focus on high c...
The rising demand for high-performing embedded systems made FPGAs ubiquitous. Combining the strength...
Floating-point computing with more than one TFLOP of peak performance is already a reality in recent...
Reconfigurable hardware devices, such as Field Programmable Gate Arrays (FPGAs), can be used to spee...
Real-time image and video processing is becoming increasingly important in many applications. A high...
As CPU clock frequencies plateau and the doubling of CPU cores per processor ex-acerbate the memory ...
Processor architecture is continuously evolving. As the trend predicted by Moore's law is nearing it...
Field Programmable Gate-Arrays (FPGA) containing one or more embedded processor cores within the FPG...
As we continue to be able to put an increasing number of transistors on a single chip, the answer to...