DEFENCE OF MASTER THESES BY GREENANO STUDENTS
ERASMUS MUNDUS
ERASMUS MUNDUS
Members of the Consortium:
Jožef Stefan International Postgraduate School (Slovenia),
University of Lorraine (France),
Tor Vergata University of Rome (Italy), and
Institute of Structure of Matter of the National Research Council – CNR-ISM (Italy),
which jointly deliver the GREENANO Erasmus Mundus master programme, invite you to attend the master theses defences taking place on 31 August and 1 September 2026 in Nancy, France. You can attend the defences via Zoom.
DEFENCE SCHEDULE:
Title: Hybrid Plasmonic–Waveguide Resonant Gratings with Embedded Metal Nanoparticles for Enhanced Color Effect
Supervisor: Prof. Dr. Yves Jourlin
Co-Supervisor: Prof. Dr. Hervé Rinnert
Short Abstract: This research develops a new optical surface that combines tiny metal nanoparticles with light-guiding structures. By controlling the structure and laser processing, the study explores how light can be manipulated to create tunable colours and optical responses, with potential applications in advanced photonic technologies.
Title: Iron chloride thin layer as a platform for self-assembling of magnetic molecules
Supervisor: Dr. Stefano Colonna
Co-Supervisors: Prof. Dr. Yannick Fagot-Revurat, prof. dr. Giorgio Contini
Short Abstract: This thesis investigates ultrathin iron chloride layers on gold as a platform for organizing magnetic molecules. Using surface microscopy and photoemission techniques, it explores how these nanoscale layers grow, remain stable, and how molecules and surfaces behave at their interfaces.
Title: Advanced Aerosol-Plasma Deposition of Polydimethylsiloxane Coatings on Wood for Improving Its Surface Properties
Supervisor: Prof. Dr. Uroš Cvelbar
Co-Supervisor: Dr. Rer. Nat. Michael Thomas
Short Abstract: Wood naturally absorbs water, which can limit its durability. This thesis explores a solvent-free plasma process for applying water-repellent silicon-based coatings to wood. The coatings showed strong hydrophobicity and durability, with promising potential in protection against flame damage.
Title: Simulating STM and XPS for on-Surface Synthesis and Self-Assembly
Supervisor: Dr. Conor Hogan
Co-Supervisor: Prof. Olivia Pulci
Short Abstract: DFT simulations of STM and XPS reveal how chalcogen and hydrogen bonding drive molecular self-assembly on Au(111). The study also shows how molecule-metal interactions alter electronic properties, providing insights for designing functional supramolecular materials.
Title: Towards structural elucidation of esparto xylan crystals: a combined approach by electron microscopy, diffraction, and spectroscopy
Supervisor: Assoc. Prof. Dr. Janez Zavašnik
Co-Supervisors: Prof. Yu Ogawa, Prof. Yoshiharu Nishiyama
Short Abstract: This thesis investigates how xylan, a renewable plant-based polymer, forms crystals. A gradual pH-adjustment method produced well-defined hexagonal crystals, while electron microscopy and diffraction revealed their structure — a step toward sustainable, bio-based materials.
Title: Development of a Competence Passport Framework for Nanotechnology Education in Green and Digital Transition
Supervisor: Asst. Prof. Dr. Andreja Abina
Co-Supervisor: Prof. Dr. Aleksander Zidanšek
Short Abstract: This thesis develops a digital Competence Passport framework for nanotechnology students that integrates technical, sustainability, digital and transversal competencies, enabling visualisation of competence profiles and identification of development needs for the green and digital transition.
Title: MOF-based Resonant Platforms
Supervisor: Prof. Roberto Paolesse
Co-Supervisor: Dr. David Muñoz-Rojas
Short Abstract: Volatile organic compounds (VOCs) are released from everyday and industrial sources, making their detection important for environmental monitoring, safety, and health. This master thesis investigates the integration of porous metal-organic framework (MOF) coatings with PiezoMEMS resonators for future gas-sensing applications. ZnO precursor layers were prepared using spin coating, NAZCA high-precision capillary printing, and AP-SALD, then converted into MOF films by MOF-CVD. The films were characterised by SEM, EDS, and GI-XRD. Overall, the work establishes practical routes for integrating MOF coatings with PiezoMEMS resonators and provides a foundation for future VOC sensing based on resonance changes.
Title: Thermo-sealed packaging for microfluidic silicon devices
Supervisor: Prof. Dr. Claudio Goletti
Co-Supervisor: Lillo Raia
Short Abstract: This thesis develops an adhesive-free method to join polymer microfluidic cartridges with silicon chips using controlled heat and applied force. The approach creates a reliable interface for compact devices and supports the development of miniaturized systems for rapid molecular diagnostics.
Title: Mixed-Dimensional Quasi-2D Perovskite for photovoltaic applications: optical characterization and ultrafast charge dynamics
Supervisor: Prof. Giorgio Contini
Co-Supervisor: Dr. Alessandra Paladini
Short Abstract: This thesis investigates the optoelectronic properties and ultrafast carrier dynamics of mixed-dimensional quasi-2D perovskites, focusing on the distribution and band alignment of the different phases and their role in the dynamics of photoexcited carriers on femtosecond-to-picosecond timescales.
Title: Understanding the flow of gas through small-diameter microcapillaries
Supervisor: Prof. Dr. Uroš Cvelbar
Short Abstract: Gas transport through long microcapillaries of different diameters was investigated over a wide pressure range, covering different Knudsen-number regimes. Experimental data were compared with theoretical flow models to assess their validity under the investigated conditions.
Title: Layer Engineering for Lateral Heterojunction Perovskite Solar Cells
Supervisor: Prof. Thomas M. Brown
Co-Supervisor: Dr. Philip Schulz
Short Abstract: What actually happens inside a perovskite solar cell? This thesis explores a lateral heterojunction design that offers a direct look into the perovskite, an attempt to open up new ways of tackling open questions in a technology believed to disrupt the solar industry.
Title: Atomic layer deposition techniques for perovskite solar cells
Supervisors: Prof. dr. Michael Saliba, Dr. Chittaranjan Das
Co-Supervisor: Prof. Dr. Uroš Cvelbar
Short Abstract: Perovskite surfaces are chemically fragile, limiting device stability. This work repurposes a damaging reaction to intentionally degrade and then reconstruct the surface into protective interfaces or layers. The approach enables selective removal and repair, offering a pathway to durable, high-performance optoelectronic devices.
Title: Localized surface plasmon resonance driven laser lithography on highly insulating substrates
Supervisor: Prof. Dr. Uroš Cvelbar
Co-Supervisor: Assoc. Prof. Dr. Janez Zavašnik
Short Abstract: Can light offer an alternative to energy intensive nanofabrication for printable electronics? This thesis explores how tiny silver nanoparticles can concentrate laser energy to create nanoscale changes. By studying different surfaces, it reveals how substrate design controls heat and could enable cleaner, low power manufacturing.
Title: Experimental and Sustainability-Driven Investigation of High-Entropy Alloys
Supervisor: Prof. Dr. Alexandre Nominé
Short Abstract: High-entropy alloys blend five+ metals for scientifically interesting properties, but often need rare elements. Eight candidates were chosen on practical grounds, then re-assessed for sustainability. One, TiNbMoTaW, was made into a thin film by sputtering, in crystalline and amorphous forms, and fully characterized.
Title: Fabrication and characterization of pulsed laser deposited lithium lanthanum tantalate (Li3xLa1/3-xTaO3) electrolyte for solid-state batteries
Supervisor: Assoc. Prof. Dr. Matjaž Spreitzer
Co-Supervisor: Assoc. Prof. Dr. Srečo Davor Škapin
Short Abstract: This study investigated the synthesis of Li3xLa1/3-xTaO3 (LLTaO) ceramic pellets and identified an optimal composition for thin-film fabrication by PLD on SrTiO₃ (STO) substrate. The deposited thin films were structurally, morphologically, and electrochemically characterized, contributing to the development of LLTaO as a promising solid-state electrolyte for next-generation batteries.
Title: Decoration and characterization of carbon host with CuO and its electrochemical performance in an Mg-S battery
Supervisor: Assoc. Prof. Dr. Matjaž Kavčič
Co-Supervisor: Dr. Alen Vižintin
Short Abstract: This work investigates CuO-decorated carbon cathodes for Mg-S batteries. A 10 wt.% CuO cathode achieved the highest initial capacity, ~1400 mAh g⁻¹, but capacity rapidly declined. X-ray analyses revealed sulfur conversion during discharge, highlighting the need for further optimization.
Title: Effect of citric acid on the structure and properties of agar-based biodegradable films for potential sustainable packaging
Supervisor: Prof. Emanuela Gatto
Co-Supervisors: Emilie Thorel, Hugo Montan
Short Abstract: This thesis investigates citric acid in agar/PVA biodegradable films for sustainable food packaging. Citric acid acted mainly as a plasticiser in PVA but caused chain degradation in agar, while higher-molecular-weight PVA blends showed improved water resistance, highlighting the importance of formulation and processing conditions.
Title: Effect of ascorbic acid on the hydrothermal growth and photocatalytic properties of ZnO films
Supervisor: Dr. Matejka Podlogar
Short Abstract: This thesis explores how vitamin C (ascorbic acid) can control the hydrothermal growth of zinc oxide (ZnO) films. Films grown with 3 mM vitamin C at 90°C and heat treated at 600 °C showed the highest ability to break down caffeine in water.
Title: Investigation of self-organized TiO2 nanotube layers on Ti-6Al-4V alloys produced by laser beam directed-energy deposition (DED-LB) and comparison with the conventional wrought material
Supervisor: Prof. Dr. Ingrid Milošev
Co-Supervisor: Dr. Denis Sačer
Short Abstract: This study focuses on titanium alloys used for orthopaedic implants fabricated by conventional and additive manufacturing processes. Nanotube layers of titanium oxide were formed by appropriate surface modification and heat treatment to improve corrosion resistance and implant-bone integration.
Title: Cellulose-based adsorbents for CO₂ capture: Functionalization and shaping
Supervisor: Dr. Vasyl Shvalya
Co-Supervisor: Prof. Dr. Maïté Michaud
Short Abstract: Can plant-based materials help capture CO₂ directly from the air? This thesis explores aminosilane-functionalised cellulose aerogels as sustainable sorbents for direct air capture. A gas-phase grafting approach enables amine functionalisation with reduced solvent use, offering a greener and potentially more affordable pathway toward reusable CO₂ capture materials.
Title: Iridium-Based Nanoclusters for Water Electrolysis – A DFT Approach
Supervisor: Asst. Prof. Dr. Matej Huš
Co-Supervisor: Dr. Matic Pavlin
Short Abstract: The stability and OER activity of pure iridium and bimetallic Irn-1Co, Irn-1Fe, Irn-1Ni, and Irn-1Mn nanoclusters were investigated using density functional theory. The effects of cluster size, geometry, and alloying on OER activity were evaluated. Among the investigated systems and adsorption sites, Ir₇Co showed the lowest overpotential.
Title: Development of vertically structured Ti3C2Tx MXene films and investigation of silicon electrodeposition for energy storage materials
Supervisor: Asst. Prof. Dr. Neelakandan Marath Santhosh
Co-Supervisor: Prof. Jeremy Mallet
Short Abstract: This research explores a new way to arrange Ti3C2Tx MXene materials into porous, vertical structures that allow ions to move more easily through electrodes. This design could support the development of more effective materials for future batteries, supercapacitors, and other energy-storage devices.
Title: Development of Ni(OH)₂/NiOOH–Conductive Polymer Electrochemical Sensors for Glucose Detection in Artificial Sweat
Supervisor: Asst. Prof. Dr. Kristina Žagar Soderžnik
Co-Supervisor: Dr. Jelena Vujančević
Short Abstract: A Ni(OH)₂/NiOOH–PMB modified gold screen-printed electrode was developed for non-enzymatic glucose detection in artificial sweat. The sensor achieved a sensitivity of 1094.4 µA mM⁻¹ cm⁻², a LOD of 4.57 µM, and high selectivity, demonstrating potential for wearable glucose monitoring.
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