Abstract

This paper presents a new approach for complex system design, allowing rapid, efficient and low-cost prototyping. Using this approach can simplify designing tasks and go faster from system modeling to effective hardware implementation. Designing multi-domain systems require different engineering competences and several tools, our approach gives a unique design environment, based on the use of VHDL-AMS modeling language and FPGA device within a single design tool. This approach is intended to enhance hardware-in-the-loop (HIL) practices with a more realistic simulation which improve the verification process in the system design flow. This paper describes the implementation of a software/hardware platform as effective support for our methodology. The feasibility and the benefits of the presented approach are demonstrated through a practical case study of a power converter control. The obtained results show that the developed method achieves significant speed-up compared with conventional simulation methods, using minimum resources and minimum latency.

Highlights

  • In a top-down development process, design tasks are critical keys in system implementation success

  • VHDL-AMS is used as the mainstay for the system design; it will be used as a support language for modeling and simulation in the different phases of the system design flow

  • VHDL-AMS is an extension of the IEEE standard VHDL language, this language allows designers to model any mixed-signal plant that can be described by a system of differential and algebraic equations (DAE’s), it supports the hierarchical description and the simulation of continuous and mixed continuous/discrete systems with conservative and nonconservative semantics [2], [8]

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Summary

Introduction

In a top-down development process, design tasks are critical keys in system implementation success. For that reason, mixed-signal hardware description languages such as VHDL-AMS are indispensable, it is intended to provide a unifying trend that will link the various tasks of analog and mixed-signal design in a coherent framework to support different design methodologies and different design tools [2], [3]. On another side, Verification and validation (V&V) procedures are the solutions for a system design success, they go along with each step of the development cycle. This prototype is subjected to several cycles of testing and re-design in an expensive facility [5]

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