Search engine for discovering works of Art, research articles, and books related to Art and Culture
Javascript must be enabled to continue!
Intrinsic Evolvable Hardware Structures
View through CrossRef
The main target of this chapter is to present the intrinsic evolvable hardware structures: concept, design and applications. The intrinsic evolvable hardware structures concept join more research areas like: bio–inspired searching methods (evolutionary algorithms), optimization of algorithms by parallel processing and reconfigurable circuits. First, a general overview about intrinsic evolvable hardware structure is presented. The intrinsic evolvable hardware structure consists of two main modules: hardware genetic algorithm and dynamic reconfigurable circuit. The hardware genetic algorithm searches the configuration that makes the reconfigurable circuit to correctly respond to application requirements. The background section present the genetic algorithm concept as a bio-inspired search solution, the hardware reconfiguration concept with sub areas classifications and the research directions in the evolvable hardware structures areas with application examples. The main section presents the design solutions for hardware implementation of genetic algorithm and for the reconfigurable circuit. Finally, several applications are presented that illustrate the usefulness of the intrinsic evolvable hardware structure.
Title: Intrinsic Evolvable Hardware Structures
Description:
The main target of this chapter is to present the intrinsic evolvable hardware structures: concept, design and applications.
The intrinsic evolvable hardware structures concept join more research areas like: bio–inspired searching methods (evolutionary algorithms), optimization of algorithms by parallel processing and reconfigurable circuits.
First, a general overview about intrinsic evolvable hardware structure is presented.
The intrinsic evolvable hardware structure consists of two main modules: hardware genetic algorithm and dynamic reconfigurable circuit.
The hardware genetic algorithm searches the configuration that makes the reconfigurable circuit to correctly respond to application requirements.
The background section present the genetic algorithm concept as a bio-inspired search solution, the hardware reconfiguration concept with sub areas classifications and the research directions in the evolvable hardware structures areas with application examples.
The main section presents the design solutions for hardware implementation of genetic algorithm and for the reconfigurable circuit.
Finally, several applications are presented that illustrate the usefulness of the intrinsic evolvable hardware structure.
Related Results
High-level open evolvable systems design by process-oriented modeling
High-level open evolvable systems design by process-oriented modeling
Open Evolvable Systems' design requires a methodological [1] and conceptual paradigm different from the conventional software design. Evolvable Systems' research [2, 6, 16, and 17]...
Performance simulation methodologies for hardware/software co-designed processors
Performance simulation methodologies for hardware/software co-designed processors
Recently the community started looking into Hardware/Software (HW/SW) co-designed processors as potential solutions to move towards the less power consuming and the less complex de...
Virtualizable hardware/software design infrastructure for dynamically partially reconfigurable systems
Virtualizable hardware/software design infrastructure for dynamically partially reconfigurable systems
In most existing works, reconfigurable hardware modules are still managed as conventional hardware devices. Further, the software reconfiguration overhead incurred by loading corre...
Singularity#1 and MFA II. Singularität Nr. 1 und MFA II.
Singularity#1 and MFA II. Singularität Nr. 1 und MFA II.
AbstractThe Dog-Ears formal system (Bheemaiah, n.d.) is extended with MFA II architecture for the definition of Taskoids, needing adaptable designs and additive printing. We presen...
Probabilistically time-analyzable complex processor designs
Probabilistically time-analyzable complex processor designs
Industry developing Critical Real-Time Embedded Systems (CRTES), such as Aerospace, Space, Automotive and Railways, faces relentless demands for increased guaranteed processor perf...
Electronic Hardware for Fuzzy Computation
Electronic Hardware for Fuzzy Computation
This chapter describes two decades of evolution of electronic hardware for fuzzy computing, and discusses the new trends and challenges that are currently being faced in this field...
Survey on Hardware Security: PUFs, Trojans, and Side-Channel Attacks
Survey on Hardware Security: PUFs, Trojans, and Side-Channel Attacks
The increasing reliance on hardware technologies across critical sectors such as healthcare, defense, automotive, and finance has raised awareness of vulnerabilities in these syste...
Software driven approach for Embedded Devices
Software driven approach for Embedded Devices
This paper presents the possible new design paradigm that emerged during the author’s design of an embedded communication device for Croatian Navy. Prior to codesign techniques tha...