Development of High-Precision Microfluidic Devices with Microchannels Fabricated by Additive Manufacturing via Stereolithography for Industrial Applications

This project addresses the challenges in the design and manufacturing of microfluidic devices, which are critical in sectors such as biomedicine, chemical engineering, and environmental analysis. Traditional methods, such as photolithography and micromilling, present significant limitations in terms of cost, complexity, and geometric flexibility. To resolve this, the research focuses on additive manufacturing via stereolithography (SLA), a technology that enables the creation of complex structures with high precision. The methodological approach combines applied and experimental research, utilizing specialized laboratories to fabricate prototypes and validate their functional performance. The goal is to optimize the geometric design of microchannels to improve flow efficiency and the adaptability of devices in real industrial environments. Expected results include the development of innovative solutions for the production of sensors, valves, and customized microfluidic systems. By improving efficiency and reducing manufacturing costs, this project directly contributes to industrial competitiveness and technological advancement in system miniaturization, benefiting strategic sectors such as manufacturing, pharmaceuticals, and medicine.<br/><br/><b>Goal</b>: <br/>Develop high-precision microfluidic devices using stereolithography (SLA) additive manufacturing to optimize fluid control in industrial applications. The project aims to overcome the limitations of traditional manufacturing methods through process optimization and geometric design improvements.<br/><br/><b>Research lines</b>: <br/>New materials and transformation processes