Research Topics
1. Low-dimensional materials
We explore the synthesis, functionalization, and integration of low-dimensional materials with tailored properties. This includes:
- 2D materials such as graphene, MXenes, and MoS₂, offering high surface area, conductivity, and mechanical strength for a broad range of applications.
- Metallic nanoparticles with controlled size, shape, and composition, used in catalysis, sensing, and energy-related processes.
- Molecular and supramolecular materials including COFs, MOFs, POSS, and POCOFs, enabling modular design and tunable porosity.
Our work spans from scalable synthesis and exfoliation strategies to in-depth studies of structure–function relationships, aiming to unlock the full potential of these nanostructured systems in real-world applications.
2. Energy storage
We design and engineer hybrid nanomaterials for high-performance energy storage systems, including:
- Supercapacitors with high capacitance and rapid charge/discharge characteristics.
- Rechargeable batteries based on zinc, lithium, and aluminum ion technologies.
Our work focuses on developing active materials with enhanced conductivity, chemical stability, and electrochemical performance. We also investigate structure–property relationships and interface engineering to optimize energy conversion and storage at the nanoscale.
3. Sensors
We develop multifunctional sensors by combining molecular design and materials science. These include:
- Chemical sensors for detecting pollutants, ions, and small molecules.
- Biosensors for healthcare and biomedical monitoring.
- Pressure and strain sensors for smart materials and soft robotics.
Through supramolecular interactions and nanostructured platforms, we enhance sensitivity, selectivity, and response time. Our sensors are designed for integration into flexible, wearable, or embedded systems.
4. Hybrid composites for structural and environmental applications
We integrate nanomaterials into hybrid composites for next-generation functional systems. Key projects involve:
- Graphene-based cementitious materials for structural health monitoring, enabling real-time tracking of strain or damage.
- Porous hybrid materials for environmental remediation and heterogeneous catalysis.
By bridging materials chemistry, nanostructuring, and mechanical design, we create multifunctional systems that combine robustness with responsiveness to environmental stimuli.
