2016Unpublished venueRequires access

An architecture for globally-synchronous locally-asynchronous systems on FPGAs

Duarte L. Oliveira, Lester A. Faria, Higor A. Delsoto, Kledermon Garcia

Open publisher page 3 citations

Abstract

Taking advantage of synchronous and asynchronous paradigms, a new style of design called Globally Synchronous Locally Asynchronous (GSLA) has achieved very interesting results. In this paper, we propose a high-performance interface that allows the communication of synchronous to asynchronous to synchronous modules. Internally, the proposed interface comprises an asynchronous module. The GSLA design style is the most suitable one for FPGA (Field-Programmable Gate Array) platforms, because it facilitates the SoC (Systems-on-Chip) design. Through a case study, the “differential equation solver”, we show that the proposed interface presents a reduction of 33% in the processing time when compared with a synchronous design. The proposed interface lets you interact with other synchronous modules in a frequency up to 500 MHz.

About this research paper

What this paper is about

Taking advantage of synchronous and asynchronous paradigms, a new style of design called Globally Synchronous Locally Asynchronous (GSLA) has achieved very interesting results. In this paper, we propose a high-performance interface that allows the communication of synchronous to asynchronous to synchronous modules. Internally, the proposed interface comprises an asynchronous module. The GSLA design style is the most suitable one for FPGA (Field-Programmable Gate Array) platforms, because it facilitates the SoC (Systems-on-Chip) design. Through a case study, the “differential equation solver”, we show that the proposed interface presents a reduction of 33% in the processing time when compared with a synchronous design. The proposed interface lets you interact with other synchronous modules in a frequency up to 500 MHz.

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Available abstract

Taking advantage of synchronous and asynchronous paradigms, a new style of design called Globally Synchronous Locally Asynchronous (GSLA) has achieved very interesting results. In this paper, we propose a high-performance interface that allows the communication of synchronous to asynchronous to synchronous modules. Internally, the proposed interface comprises an asynchronous module. The GSLA design style is the most suitable one for FPGA (Field-Programmable Gate Array) platforms, because it facilitates the SoC (Systems-on-Chip) design. Through a case study, the “differential equation solver”, we show that the proposed interface presents a reduction of 33% in the processing time when compared with a synchronous design. The proposed interface lets you interact with other synchronous modules in a frequency up to 500 MHz.

Key concepts: Asynchronous communication, Computer science, Field-programmable gate array, Interface (matter), Asynchronous system, Computer architecture, Solver, Embedded system

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