International Journal of Advanced Research in Computer and Communication Engineering

Abstract: The growing need for high-precision, customizable, and rapid manufacturing has led to significant advancements in additive fabrication technologies. This project focuses on the development of a next-generation 3D printer designed to deliver superior accuracy, reliability, and material versatility while maintaining low operating noise. The proposed system features a reinforced mechanical frame and optimized motion control architecture to minimize vibration and increase dimensional stability during printing. A multi-filament feeding mechanism enables seamless compatibility with three widely used materials—PLA, ABS, and Nylon—allowing users to fabricate functional prototypes with varying mechanical properties. The printer integrates Wi-Fi connectivity for wireless control, real-time monitoring, and remote parameter adjustment, enhancing usability and workflow efficiency. Noise-optimized cooling systems, insulated stepper drivers, and vibration-dampening components contribute to significantly reduced acoustic output, making the printer suitable for indoor and educational environments. The firmware is customized to support adaptive slicing, automatic calibration, and intelligent fault detection. Experimental results demonstrate improved print quality, material flexibility, and operational convenience compared to conventional desktop FDM printers. These enhancements validate the system as a robust, modular, and future-ready platform for prototyping, research, and small-scale manufacturing.

Keywords: Printing, Additive Manufacturing, Multi-Filament System, Low-Noise Operation, Wi-Fi Connectivity, FDM Technology, PLA/ABS/Nylon, Smart Prototyping

Downloads: | DOI: 10.17148/IJARCCE.2025.141282