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Formal Hardware Verification of VLSI Architecture Current Status and Future Directions
In this tutorial we present the area of formal verification of systems on Chips. The paper discuses the following topics: different approaches of formal logic such as first order bgic, high order logic, temporal logic. A case study of object-oriented paradigm is presented. A survey of the current research status is presented. The paper concludes with a section on the future directions.
In this paper, a rule-based framework for formal hardware verification is presented. The PROVER system (PROduction system for hardware VERification) is implemented using CLIPS (C Language Integrated Production System). The environment supports verification at different levels of hardware specification. The rule-based framework has been tested on the design of high speed adders.
In this paper, a rule-based framework for formal hardware verification is presented. The PROVER system (PROduction system for hardware VERification) is implemented using CLIPS (C Language Integrated Production System). The environment supports verification at different levels of hardware specification. The rule-based framework has been tested on the design of high speed adders.
In this tutorial paper the area of formal verification of DSP VLSI architectures is presented. The paper discuses the following topics: production systems, formal logic, the equational approach, and the signal flow graph approach. Each approache is explained using one or more of the current available systems.
In this paper a new formal hardware verification approach based on
object oriented techniques is presented. The HOOVER system (Hardware
Object Oriented VERification) is described. A cell library of different
hardware components has been implemented as classes. Components in the
cell library are described at the transistor level, gate level, logical
level, and functional level. The verification of a CMOS inverter and
1-bit CMOS adder using HOOVER is given in the paper
In this paper, the verification strategy of the PROVER environment
is presented. The PROVER system (PROduction system for hardware
VERification) uses CLIPS (C Language Integrated Production System).
PROVER is a rule-based framework for formal hardware verification. The
environment supports verification at different levels of hardware
specification. The verification strategy is illustrated in this paper
using a carry select adder as a case study
In this tutorial paper the area of formal verification of DSP VLSI
architectures is presented. The paper discuses the following topics:
production systems, formal logic, the equational approach, and the
signal flow graph approach. Each approach is explained using one or more
of the currently available systems
In this paper, a rule-based framework for formal hardware
verification is presented. The PROVER system (PROduction system for
hardware VERification) is implemented using CLIPS (C Language Integrated
Production System). The environment supports verification at different
levels of hardware specification. The rule-based framework has been
tested on the design of high speed adders
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