Sebastian Suarez, a first-year Mechanical Engineering master’s student at UPRM, is using computational modeling to design programmable 3D-printing materials by studying how polymers and Metallodielectric Janus particles interact at the microscopic level.

Master’s student Lira Elias-Díaz is advancing the science of liquid crystal emulsions through computational modeling, uncovering mechanisms that could drive innovation in medicine, cosmetics, and next-generation smart materials.

Magnetic Janus particles—dual-faced, field-responsive microscale machines—are driving breakthroughs in medicine, sustainability, and smart manufacturing.

Amphiphilic Janus particles—tiny dual-faced structures with both water-loving and water-repelling sides—are unlocking groundbreaking applications in medicine, environmental cleanup, and smart materials.

Hybrid liquid crystals—blending the fluid order of traditional liquid crystals with the functionality of nanoparticles—are paving the way for smarter, more adaptive technologies in displays, sensors, and safety systems.

By applying advanced computational tools, Jeferson C. Urtecho-Espinoza is helping uncover how PFAS ‘forever chemicals’ behave, research that could lead to more effective ways to detect and remove them from the environment.

Polymers—found everywhere from plastic bottles to DNA—are at the heart of the Theoretical Soft Matter & Fluid Mechanics Research Group’s work at the University of Mayagüez, where researchers explore their behavior, interactions, and applications to advance materials science, medicine, and sustainability.

The Theoretical Soft Matter & Fluid Mechanics Research Group at UPRM is pioneering innovations in soft materials by transforming complex theory into real-world impact.

Luis R. Pérez Marcos, a master’s student in Mechanical Engineering at UPRM, is using computational simulations to uncover how microscopic particle interactions shape the behavior of magnetic suspensions. His research not only advances fundamental science but also paves the way for new technologies with real-world impact.

Merging Janus Colloids, Robotics, and Biomedical Innovation

Continued interdisciplinary research in materials, modeling, and control is essential to overcome current challenges and unlock the full potential of soft robotics for real-world applications.

Salomon Horna-Shirola’s groundbreaking research on magnetic colloidal gels is unlocking new possibilities by bridging fundamental science with real-world innovation.

Some of today’s most promising medical innovations are emerging from the world of soft matter—flexible, in-between materials like gels and tissues that naturally interact with the human body.

Soft matter physics—through materials like gels, foams, and colloids—is emerging as a powerful tool for developing sustainable solutions to pollution, water purification, and environmental restoration.

Birendra Ale Magar is advancing the future of materials science by uncovering how tiny Janus particles break apart under flow, paving the way for smarter drug delivery systems and innovative industrial applications.

By combining artificial intelligence with soft matter research, our team is accelerating scientific discovery and driving innovations that could redefine the future of manufacturing, medicine, and sustainability.

Janus colloids—tiny particles with two distinct faces—are revolutionizing materials science, and our team at UPR-Mayagüez is leading the way in uncovering their vast potential for engineering, manufacturing, and environmental innovation.

Wilmer A. Martinez-Valle is harnessing the power of physics, coding, and curiosity to design microscopic particles that could revolutionize medicine, diagnostics, and environmental cleanup.

In the world of innovative materials science, few innovations are as promising as Janus particles. With the ability to revolutionize industries from medicine to energy, these unique particles are poised to change how we think about everything from drug delivery to pollution control.

The race for better battery technology just took a leap forward. Members from our research group have introduced a groundbreaking energy storage innovation: batteries made with Gallium Ferrite (GaFeO₃).