Table of Contents:
  • 1 Prolog Machines
  • 1.1 From Low Level Semantic Description of Prolog to Instruction Set and VLSI Design
  • 1.2 A 32 Bit Processor for Compiled Prolog
  • 1.3 CARMEL-1: A VLSI Architecture for Flat Concurrent Prolog
  • 1.4 VLSI for Parallel Execution of Prolog
  • 2 Functional Programming Oriented Architectures
  • 2.1 Supporting Functional and Logic Programming Languages through a Data Parallel VLSI Architecture
  • 2.2 Translating Declaratively Specified Knowledge and Usage Requirements into a Reconfigurable Machine
  • 3 Garbage Collection
  • 3.1 VLSI-Appropriate Garbage Collection Support
  • 3.2 A Self-timed Circuit for a Prolog Machine
  • 4 Content-Addressable Memory
  • 4.1 VLSI and Rule-Based Systems
  • 4.2 Unify with Active Memory
  • 4.3 The Pattern Addressable Memory: Hardware for Associative Processing
  • 5 Knowledge Based Systems
  • 5.1 A High Performance Relational Algebraic Processor for Large Knowledge Bases
  • 5.2 A WSI Semantic Network Architecture
  • 6 Neural Architectures
  • 6.1 A VLSI Implementation of Multilayered Neural Networks
  • 6.2 A Fully Digital Integrated CMOS Hopfield Network Including the Learning Algorithm
  • 6.3 A Neural Network for 3-D VLSI Accelerator
  • 6.4 Shift Invariant Associative Memory
  • 7 Digital and Analog VLSI Neural Networks
  • 7.1 VLSI Bit-Serial Neural Networks
  • 7.2 A New CMOS Architecture for Neural Networks
  • 7.3 A Limited-Interconnect, Highly Layered Synthetic Neural Architecture
  • 7.4 VLSI-Design of Associative Networks
  • 7.5 Fully-Programmable Analogue VLSI Devices for the Implementation of Neural Networks
  • 8 Architectures for Neural Computing
  • 8.1 Are Special Chips Necessary for Neural Computing?
  • 8.2 A VLSI Systolic Array Dedicated to Hopfield Neural Network
  • 8.3 An Integrated System for Neural Network Simulations