Mobile 3D printer for the fabrication of drugs and nutrition in remote areas 2

Description

This project focuses on developing a portable 3D printing system capable of producing nutritional and pharmaceutical formulations through Semi-Solid Extrusion (SSE) 3D printing technology. The system is designed to offer an energy-efficient and self-sustaining solution that can operate without relying on a stationary power source or requiring a specialized controlled environment. By employing a syringe-based extrusion mechanism powered by a hybrid energy system, the device aims to remain lightweight, adaptable, and reliable for field applications. The importance of this project lies in its contribution to supporting personalized healthcare and nutrition in low-resource environments. The proposed system enables the production of safe and precise doses directly at the point of need, which is particularly valuable in remote areas or disaster-affected regions. By allowing on-demand manufacturing of medications and nutritional formulations, the system can reduce dependence on complex and slow traditional supply chains and enhance rapid response capabilities during emergencies. In addition, it enables the preparation of tailor-made medication and nutrition according to individual patient needs. Furthermore, the significance of this project is particularly evident in the context of the Middle East and the Arab region, where there is a clear lack of research studies and practical implementations related to portable semi-solid extrusion 3D printing systems for healthcare applications. Although some studies have explored 3D printing technologies in the pharmaceutical field or developed limited semi-solid extrusion systems, there is still no portable, self-powered platform capable of operating effectively in field environments. At the local level, no research or prototype with a similar concept has been identified in Palestine. Therefore, this project represents a pioneering step toward developing a mobile 3D printing system capable of producing accurate and safe doses on demand, supporting the concept of decentralized manufacturing and expanding the practical applications of additive manufacturing in real-world healthcare scenarios.