Methodical approaches to modeling 8-bit microcontroller devices in the proteus software environment
DOI:
https://doi.org/10.31392/UDU-nc.series2.2024.23(30).10Keywords:
computer modeling, Proteus software environment, AVR, hardware simulation, code debugging, microprocessor technology, educational process, innovation, technology, software, circuit design, system verification, prototypingAbstract
Nowadays, microcontrollers are an integral part of modern life since their application has a wide range of devices and systems, from household appliances to complex industrial mechanisms. The constant need for microcontrollers requires practical approaches to their development and modeling. The article highlights the essence of methodological approaches to modeling 8-bit microcontroller devices in the Proteus software environment in the training of future IT specialists. The modeling stages are considered, including circuit development, program code writing and debugging, and system verification and testing. The results of the study confirm the high efficiency of the Proteus software environment for modeling 8-bit microcontroller systems, which contributes to improving the quality of education and development in the field of electronics and microprocessor technology. It is noted that microcontrollers continue to play a key role in the development of technology, improving the quality of life and promoting innovation in various fields. The relevance of this topic is due to the need to increase the efficiency of the development and testing of microcontroller systems, reduce prototyping costs, and improve the quality of final products. Using the Proteus software environment allows you to achieve these goals by providing developers with tools for accurately modeling and verifying electronic systems. Thus, this research aims to develop methodological approaches to modeling 8-bit devices, create accurate software and hardware models of microcontrollers, optimize algorithms for testing and verification of systems based on simulations, and increase the speed and quality of the design process. This will reduce the number of errors at the development stage, reduce the time for debugging prototypes, and ensure the high reliability of final electronic products.