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Welcome to the
Materials Factory
Research Group

Surface phenomena are at the core of our research in condensed matter physics, physical chemistry, and materials science. Our group focuses on understanding how surface interactions differ from bulk properties, especially in two-dimensional and topological materials, where surfaces dominate the interaction with the environment. These surface properties are crucial for a wide range of advanced technological applications, including energy conversion, catalysis, and sensing.

Chips de ADN

Research

Our work integrates multiple disciplines to explore how surface electronic excitations and chemical reactions contribute to the development of advanced materials. Key areas of research include:

  • Surface Electronic Excitations and Plasmons: We explore how surfaces in advanced materials, such as topological insulators and 2D materials, influence electronic phenomena, particularly plasmons. Plasmons can confine light to nanoscales, enhancing light-matter interactions crucial for photonic applications.

  • Thermoplasmonics for Solar Energy Conversion: Using surface plasmons, we harness sunlight to generate localized heat, known as thermoplasmonics. This technology has applications in sustainable water treatment processes like membrane distillation and photothermal crystallization.

  • Surface Chemistry and Catalysis: Our group investigates chemical reactions on reactive surfaces using in situ and operando techniques, providing real-time insight into catalytic processes. Understanding surface reactivity helps us design more efficient and selective catalysts for industrial applications.

  • Terahertz Photodetectors: We develop innovative photodetectors that operate in the terahertz range, utilizing plasma waves on topological surfaces. These devices have potential applications in non-ionizing imaging systems, such as body scanners.

  • Gas Sensing: We explore the reactive surfaces of two-dimensional and topological materials to create highly sensitive and selective gas sensors. These sensors are ideal for detecting trace levels of harmful gases in industrial and environmental settings.

News & Events

Last Publications

This study presents a novel approach combining Membrane Distillation (MD) and photo-oxidation for continuous water recovery and arsenic (As) remediation. Using polyvinylidene fluoride (PVDF) mixed matrix membranes (MMMs) with titanium dioxide (TiO₂) nanoparticles as a photocatalyst, the process converts arsenite (As(III)) to arsenate (As(V)) while recovering water from contaminated solutions. Tests on the membranes under UV radiation showed up to 80% water recovery and 95% oxidation efficiency of As(III) at a reaction rate of 0.0106 min⁻¹. Although effective, the UV exposure led to membrane embrittlement over five cycles, indicating a need for improved durability in photocatalytic membranes for long-term use.​

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