Kunio Uchiyama – författare

To satisfy the higher requirements of digitally converged embedded systems, this book describes heterogeneous multicore technology that uses various kinds of low-power embedded processor cores on a single chip. With this technology, heterogeneous parallelism can be implemented on an SoC, and greater flexibility and superior performance per watt can then be achieved. This book defines the heterogeneous multicore architecture and explains in detail several embedded processor cores including CPU cores and special-purpose processor cores that achieve highly arithmetic-level parallelism. The authors developed three multicore chips (called RP-1, RP-2, and RP-X) according to the defined architecture with the introduced processor cores. The chip implementations, software environments, and applications running on the chips are also explained in the book.Provides readers an overview and practical discussion of heterogeneous multicore technologies from both a hardware and softwarepoint of view;Discusses a new, high-performance and energy efficient approach to designing SoCs for digitally converged, embedded systems;Covers hardware issues such as architecture and chip implementation, as well as software issues such as compilers, operating systems, and application programs;Describes three chips developed according to the defined heterogeneous multicore architecture, including chip implementations, software environments, and working applications.

To satisfy the higher requirements of digitally converged embedded systems, this book describes heterogeneous multicore technology that uses various kinds of low-power embedded processor cores on a single chip. With this technology, heterogeneous parallelism can be implemented on an SoC, and greater flexibility and superior performance per watt can then be achieved. This book defines the heterogeneous multicore architecture and explains in detail several embedded processor cores including CPU cores and special-purpose processor cores that achieve highly arithmetic-level parallelism. The authors developed three multicore chips (called RP-1, RP-2, and RP-X) according to the defined architecture with the introduced processor cores. The chip implementations, software environments, and applications running on the chips are also explained in the book.

Provides readers an overview and practical discussion of heterogeneous multicore technologies from both a hardware and softwarepoint of view;Discusses a new, high-performance and energy efficient approach to designing SoCs for digitally converged, embedded systems;Covers hardware issues such as architecture and chip implementation, as well as software issues such as compilers, operating systems, and application programs;Describes three chips developed according to the defined heterogeneous multicore architecture, including chip implementations, software environments, and working applications.

To satisfy the higher requirements of digitally converged embedded systems, this book describes heterogeneous multicore technology that uses various kinds of low-power embedded processor cores on a single chip. With this technology, heterogeneous parallelism can be implemented on an SoC, and greater flexibility and superior performance per watt can then be achieved. This book defines the heterogeneous multicore architecture and explains in detail several embedded processor cores including CPU cores and special-purpose processor cores that achieve highly arithmetic-level parallelism. The authors developed three multicore chips (called RP-1, RP-2, and RP-X) according to the defined architecture with the introduced processor cores. The chip implementations, software environments, and applications running on the chips are also explained in the book.Provides readers an overview and practical discussion of heterogeneous multicore technologies from both a hardware and softwarepoint of view;Discusses a new, high-performance and energy efficient approach to designing SoCs for digitally converged, embedded systems;Covers hardware issues such as architecture and chip implementation, as well as software issues such as compilers, operating systems, and application programs;Describes three chips developed according to the defined heterogeneous multicore architecture, including chip implementations, software environments, and working applications.

This book provides wide knowledge about designing FPGA-based heterogeneous computing systems, using a high-level design environment based on OpenCL (Open Computing language), which is called OpenCL for FPGA. The OpenCL-based design methodology will be the key technology to exploit the potential of FPGAs in various applications such as low-power embedded applications and high-performance computing. By understanding the OpenCL-based design methodology, readers can design an entire FPGA-based computing system more easily compared to the conventional HDL-based design, because OpenCL for FPGA takes care of computation on a host, data transfer between a host and an FPGA, computation on an FPGA with a capable of accessing external DDR memories.In the step-by-step way, readers can understand followings:how to set up the design environmenthow to write better codes systematically considering architectural constraintshow to design practical applications

This book provides wide knowledge about designing FPGA-based heterogeneous computing systems, using a high-level design environment based on OpenCL (Open Computing language), which is called OpenCL for FPGA. The OpenCL-based design methodology will be the key technology to exploit the potential of FPGAs in various applications such as low-power embedded applications and high-performance computing. By understanding the OpenCL-based design methodology, readers can design an entire FPGA-based computing system more easily compared to the conventional HDL-based design, because OpenCL for FPGA takes care of computation on a host, data transfer between a host and an FPGA, computation on an FPGA with a capable of accessing external DDR memories.

 In the step-by-step way, readers can understand followings:

how to set up the design environmenthow to write better codes systematically considering architectural constraintshow to design practical applications