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RECONFIGURABLE AUTOMATION SYSTEM ARCHITECTURE MODEL FOR SPACE SYSTEMS (RASAMS)

Real time computing, adaptation, system synchronization and simultaneous multiple project objectives realization are few of the major automation problems faced during an automation system design today. Several trends exist in the market to solve these problems. Reconfigurable computing system technology is one of the methodologies that provide solution to several of these problems simultaneously if applied with a statistically characterized model. This paper describes the development and integration of one such Reconfigurable automation system architecture model for space systems (RASAMS). The development of RASAMS integrates the complexity of dynamic reconfiguration and partial reconfiguration applied with a bottom-up system methodology. It expedites to form On-Board Computer (OBC) system architecture for multiple autonomous application implementations on flight at real time implemented on a chosen FPGA.