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Book Categories |
Preface | ||
Conference Organizers | ||
Program Committee | ||
Comparing Different Serial and Parallel Heuristics to Design Combinational Logic Circuits | 3 | |
Fitness Landscape and Evolutionary Boolean Synthesis Using Information Theory Concepts | 13 | |
Learning for Evolutionary Design | 17 | |
Silicon Validation of Evolution-Designed Circuits | 21 | |
Implementing Evolution of FIR-Filters Efficiently in an FPGA | 26 | |
The Importance of Reuse and Development in Evolvable Hardware | 33 | |
The Once and Future Analog Alternative: Evolvable Hardware and Analog Computation | 43 | |
An Experiment on Nonlinear Synthesis Using Evolutionary Techniques Based only on CMOS Transistors | 50 | |
An Empirical Comparison of Evolutionary Algorithms for Evolvable Hardware with Minimum Time-to-Reconfigure Requirements | 59 | |
Evolving Sinusoidal Oscillators Using Genetic Algorithms | 67 | |
Overview of Field Programmable Analog Arrays as Enabling Technology for Evolvable Hardware for High Reliability Systems | 77 | |
Intrinsic Hardware Evolution for the Design and Reconfiguration of Analog Speed Controllers for a DC Motor | 81 | |
Robot Fault-Tolerance Using an Embryonic Array | 91 | |
Evolvable Building Blocks for Analog Fuzzy Logic Controllers | 101 | |
Power Dissipation Reductions with Genetic Algorithms | 111 | |
An Evolutionary Power Management Algorithm for SoC Based EHW Systems | 117 | |
The Evolutionary Design and Synthesis of Non-linear Digital VLSI Systems | 125 | |
Easily Testable Image Operators: The Class of Circuits Where Evolution Beats Engineers | 135 | |
Towards Evolvable IP Cores for FPGAs | 145 | |
Fitness Estimations for Evolutionary Antenna Design | 155 | |
Evolution of Combinatorial and Sequential On-Line Self-Diagnosing Hardware | 167 | |
Exploring FPGA Structures for Evolving Fault Tolerant Hardware | 174 | |
Experimental Results in Evolutionary Fault-Recovery for Field Programmable Analog Devices | 182 | |
Hardware Spiking Neural Network with Run-Time Reconfigurable Connectivity in an Autonomous Robot | 189 | |
Robot Error Detection Using an Artificial Immune System | 199 | |
Researches on Ingeniously Behaving Agents | 208 | |
A Scalable Platform for Intrinsic Hardware and in materio Evolution | 221 | |
Improvements to the CGA Enabling Online Intrinsic Evolution in Compact EH Devices | 225 | |
Data and Signals: A New Kind of Cellular Automaton for Growing Systems | 235 | |
Self-Protection Maintains Diversity of Artificial Self-Replicators Evolving in Cellular Automata | 242 | |
Evolved Reversible Cascades Realized on the CAM-Brain Machine (CBM) | 246 | |
Developmental Processes in Silicon: An Engineering Perspective | 255 | |
An Embryonic Array with Improved Efficiency and Fault Tolerance | 265 | |
Automatic Multi-Module Neural Network Evolution in an Artificial Brain | 273 | |
Author Index | 277 |
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Add 5th NASA/DoD Workshop on Evolvable Hardware, Evolvable hardware employs artificial evolution to automate the design and adaptation of physical reconfigurable and morphable structures such as electronic systems, antennas, MEMS, and robots. Here, designers, technology developers, and end-users from th, 5th NASA/DoD Workshop on Evolvable Hardware to the inventory that you are selling on WonderClubX
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Add 5th NASA/DoD Workshop on Evolvable Hardware, Evolvable hardware employs artificial evolution to automate the design and adaptation of physical reconfigurable and morphable structures such as electronic systems, antennas, MEMS, and robots. Here, designers, technology developers, and end-users from th, 5th NASA/DoD Workshop on Evolvable Hardware to your collection on WonderClub |