Courses
Core and elective courses in reaction engineering, process design, and sustainable technologies.
About The Research Group
Welcome to our research group! Here, we try to combine principles of fundamental chemistry, chemical engineering and materials science to contribute with meaningful insights into the fields of photocatalysis, electrocatalysis, and microfluidics, with a special interest in developing sustainable decarbonization technologies.
As a research group rooted within a Jesuit institution and aligned with its ethos, we believe that scientific inquiry goes beyond the pursuit of knowledge, involving a profound reflection of our commitment to the greater good. Inspired by Jesuit ideals, we aim for answers with understanding and purpose, viewing each challenge as an opportunity to engage deeply with the world and harness science in the service of humanity. Feel free to get in touch, as we are always open to meaningful collaborations!
Our Sponsors
Research Lines
Photocatalysis for Environmental & Energy Applications
Harnessing the full potential of sunlight!
Advanced Oxidation Processes
Developing new reactors and processes for sustainable water treatment.
Microreactor Design & Fabrication
Exploring the world of microfluidics and manufacturing.
Multiscale Modelling & Simulation
From quantum mechanics to reactor design, bridging scales with process simulation.
Education & Outreach
Engaging with the community and shaping the next generation of engineers.
Teaching
Our teaching activities connect research, engineering practice, and student development at undergraduate and graduate levels.
Laboratory & Project-Based Learning
Hands-on experiments and challenge-driven projects that integrate theory, data analysis, and real process constraints.
Student Mentoring
Supervision of undergraduate and graduate students with emphasis on scientific communication, ethics, and professional growth.
Our Team
The algorithm behind the data!
Recent Publications
These are the research items published by our group.
Research Projects
Our current and recent research initiatives across multiple research areas.
Sustainable Development Goals Impact
Hover over an SDG to view related projects.
Hover over an SDG to view related projects.
National & International Collaborations
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Photocatalysis for Energy & Environment
Our research in photocatalysis focuses on designing and optimizing novel semiconductor materials to address critical environmental and energy challenges. We explore everything from fundamental defect engineering in materials like TiO2 and ZnO to the development of intensified microreactors for solar-driven processes. Our goal is to create efficient, low-cost solutions for water purification, air treatment, and the sustainable synthesis of chemicals like ammonia.
Key Publications
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Advanced Oxidation Processes (AOPs)
Our work in Advanced Oxidation Processes is dedicated to developing robust and efficient solutions for treating recalcitrant pollutants in water and wastewater. We investigate a wide range of technologies, from classic Fenton and ozonation processes to innovative hybrid systems combining hydrodynamic cavitation, persulfate activation, and enzymatic reactions. A key focus is on process optimization, kinetic modeling, and reactor design—including 3D-printed prototypes—to create scalable and economically viable water treatment solutions.
Key Publications
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Microreactor Design & Fabrication
This research line is dedicated to process intensification through the innovative design of micro-structured reactors. We leverage techniques like 3D printing, spray pyrolysis, and catalyst immobilization to create low-cost, high-efficiency systems for a variety of applications, including solar photocatalysis and advanced oxidation. By manipulating flow in micro-structured spaces, we aim to overcome mass-transport limitations, enhance light harnessing, and develop scalable solutions for environmental and energy challenges.
Key Publications
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Multiscale Modelling & Simulation
In this research line, we use a range of computational tools to bridge the gap between molecular-level phenomena and reactor-scale performance. By applying quantum chemical calculations (like DFT), we unveil reaction mechanisms and predict kinetic constants. At a larger scale, we use computational fluid dynamics (CFD) and process simulation to understand hydrodynamic behavior, optimize reactor design, and predict the environmental fate of pollutants. This multiscale approach allows us to build robust, predictive models that accelerate the development of sustainable chemical processes.
Key Publications
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Education & Outreach
Beyond the lab, we are deeply committed to advancing chemical engineering education and using our expertise to address pressing societal needs. We focus on developing and implementing innovative teaching methodologies, such as Problem-Based Learning (PBL) enhanced with AI tools, to create more engaging and effective learning environments. Our goal is to equip the next generation of engineers with both the hard and soft skills necessary to tackle complex, real-world challenges. This includes institutional modernization projects and rapid-response research to crises like the COVID-19 pandemic.
