Unleash the System On Chip using FPGAs and Handel C - Livro de bolso

Livro na base de dados desde 2011-11-04T12:16:44+00:00 (Lisbon)
Página de detalhes modificada pela última vez em 2023-08-03T03:48:09+01:00 (Lisbon)
Número ISBN/EAN: 9789048181117

Número ISBN - Ortografia alternativa:
90-481-8111-9, 978-90-481-8111-7
Ortografia alternativa e termos de pesquisa relacionados:
Autor do livro: santosh
Título do livro: chip, händel

Dados da editora

Autor: Rajanish K. Kamat; Santosh A. Shinde; Vinod G Shelake
Título: Unleash the System On Chip using FPGAs and Handel C
Editora: Springer; Springer Netherland
174 Páginas
Ano de publicação: 2010-10-19
Dordrecht; NL
Impresso / Feito em
Língua: Inglês
106,99 € (DE)
109,99 € (AT)
118,00 CHF (CH)
POD
XXIV, 174 p.

BC; Hardcover, Softcover / Technik/Elektronik, Elektrotechnik, Nachrichtentechnik; Schaltkreise und Komponenten (Bauteile); Verstehen; FPGA; Handel C; Network on Chip (NoC); Soft IP cores; System on Chip (SoC); fuzzy controller; integrated circuit; Electronic Circuits and Systems; Special Purpose and Application-Based Systems; Wissensbasierte Systeme, Expertensysteme; BB

Chapter 1: Introduction. 1.1 Prologue. 1.2 Exceptional Attributes of the  SoC Technology. 1.3 Classical taxonomy: a holistic perspective extended towards  Integrated Circuits Classification. 1.4 System on Chip (SoC) Term and Scope. 1.5 Constituents of SoC. 1.6 Sprawling Growth of SoC market. 1.7 Choosing the platform, ASIC Vs FPGAs. 1.8 FPGA based Programmable SoC. 1.9 Orientation of the Book.

Chapter 2: Familiarizing with Handel C. 2.1 EDA Tools i.e. Computer Aids for VLSI Design. 2.2 Background of Hardware Description Languages. 2.3 Expressing abstraction at higher levels. 2.4 Where C stands amidst the well established HDLs? 2.5 Introducing Handel C. 2.6  Top Down or Bottom up? 2.7 Handel C: A boon for Software Professionals. 2.8 Handel C Vs ANSI C. 2.9 Handel C Design Flow.

Chapter 3: Sequential logic Design. 3.1 Design Philosophy of Sequential Logic. 3.2 D flip-flop. 3.3 Latch. 3.4 Realization of JK Flip-Flop. 3.5 Cell of  Hex counter for Counter Applications. 3.6 Realization of Shift Register for SoC. 3.7 LFSR Core for Security Applications in SoC. 3.8 Clock Scaling and Delay Generation in SoC. 3.9 SoC Data Queuing using FIFO. 3.10 Implementation of Stack though LIFO. 3.11 Soft IP core for Hamming Code.

Chapter 4: Combinational Logic Design. 4.1 Introduction. 4.2 Design Metrics for the Combinational Logic Circuits: SoC Perspective. 4.3 Core of “2 to 4 decoder”. 4.4 “3 to 8 decoder” using hierarchical approach. 4.5 Priority Encoder 4 to 2. 4.6 Soft IP Core of “7 to 3 encoder” Implementation. 4.7 IP core of ‘Parity generator’ for Communication Applications. 4.8 IP Core for Parity checker and error detection for Internet Protocol. 4.9 BCD TO Seven Segment converter. 4.10 Core of Binary to Gray Converter and Applications. 4.11 Realization of IP Core of Gray to Binary Converter. 4.12  Designing Barrel Shifters and their applications.

Chapter 5: Arithmetic core design and Design Reuseof  Soft IP Cores. 5.1 Design Reuse Philosophy. 5.2 Advantages of on chip arithmetic. 5.3 Designing Half adder in Handel C. 5.4 Designing Full Adder as a Reusable Core. 5.5 Ripple Carry Adder on Chip. 5.6 Realization of Booth Algorithm using FPGA. 5.7 Building 8 bit ALU. 5.7 Third Party Tool Interface with Handel C. 5.8 Xilinx EDK Interface with Cores developed through Handel C.

Chapter 6: Rapid Prototyping of the Soft IP cores on FPGA. 6.1 Prototyping Philosophy. 6.2  Design and Prototyping of a Fuzzy Controller. 6.3 TCP/IP Packet Splitter Implementation Using Mixed Design Flow. 6.4. Linear Congruential Random Number Generator. 6.5 Implementation of Reusable Soft IP core of Blowfish Cipher.

Chapter 7: Soft Processor Core for Accelerated Embedded Design. 7.1 Building SoC for temperature control application using Picoblaze. 7.2 Hardware Software Codesign of SoC with built in Position Algorithm.

The last two decades have witnessed the overhauling growth in microelectronics and it has emerged as a major new technological force shaping our everyday lives. Apart from the ubiquitous penetration in the social life, the microelectronics is going though a paradigm shift from the VLSI to personal computers, mobile devices and finally converging to single-chip solutions embedded with  the intelligence in both hardware and software form. It is undisputed fact that the System-on-a-chip (SoC) is revitalizing the design of integrated circuits due to the unprecedented levels of integration possible and has become the pervasive next generation revolution in microelectronics and Chip Design.

The proliferation of ‘SoC’ have made most of the prognosticators to bet that it is going to sustain and thrive the accelerated growth in the semiconductor market. However, the designers are agonized about the resuscitation of the Moore’s law that has delivered consistently since about 1975, inspite of changing the design perceptions from transistors to IP cores, functional and structural diversification which is popularly known as “More than Moore”. In nutshell, the ‘Halcyon Days’ enjoyed by the VLSI industry are behind us and there is constant quest for development of  affluent design methodologies for addressing the narrow market windows and accelerated obsolescence cycles that naturally impose reduced development times for the devices in the new era belonging to SoCs.