Milan, Lombardy, Italy
Physics graduate with specialization in Physics of Materials. Extensive knowledge in the field of semiconductors, with expertise in spectroscopic techniques, opto-electronic devices and materials characterization. Currently working as Process Control engineer at STMicroelectronics. During my academic career I collaborated in experimental research activities, contributing to the multi-institutional project [CANVAS] for the development of high efficiency solar cells. Eager to tackle new challenges in the semiconductor field. I consider myself a dynamic, resourceful, and detail-oriented individual with a strong inclination toward continuous learning. I am always eager to take on new challenges and experiences that help expand my skills and knowledge.
Working in Statistical Process Control team by monitoring and optimizing wafer fab yield, the primary Key Performance Indicator for manufacturing efficiency. Focused on identifying process deviations and supporting data-driven strategies to implement solutions to enhance the overall quality and robustness of the 300mm semiconductor wafers manufacturing process.
Delivered comprehensive in-class and laboratory lessons in physics (including electromagnetism, thermodynamics, optics) and mathematics (calculus, statistics, analytical geometry) to high school students. Key achievements: - Developed enhanched communication skills in order to explain physical phenomena and mathematical concepts, translating abstract theories into practical understanding. - Managed multiple classes simultaneously while maintaining high educational standards, developing strong organizational and time management skills. - Attended a course on 3D printing, developing skills with printing software Orca Slicer and 3D design software Tinkercad - Stayed current with educational technologies and scientific developments, maintaining the adaptability and the learning mindset.
Collaborated on the CANVAS project ("nuovi Concetti, mAteriali e tecnologie per l'iNtegrazione del fotoVoltAico negli edifici in uno scenario di generazione diffuSa"), a multi-institutional research initiative involving universities and industry partners focused on innovative materials and technologies for building-integrated photovoltaics. Research Focus: Investigated InGaAs-based metamorphic buffer layers for next-generation InGaP/InGaAs/Ge three-junction solar cells, targeting efficiency improvements beyond current 30% limitations. Key responsibilities and achievements: - Conducted comprehensive characterization of high-efficiency solar cell samples using advanced spectroscopic techniques including photoluminescence, time-resolved photoluminescence (TRPL) and Raman spectroscopy. - Performed structural analysis using microscopy techniques to investigate material properties. - Successfully identified and characterized structural defects including misfit and threading dislocations through high-resolution µ-PL mapping, demonstrating cross-hatch patterns and emission contrast variations. Developed a Python script for elaborate data from scanning photoluminescence microscopy. - Identified and analyzed structural defects in photovoltaic samples, contributing to the understanding of efficiency-limiting factors. - Collaborated in a multidisciplinary research environment with academic and industrial partners. Research findings contribute to the development of higher-efficiency multi-junction solar cells for building-integrated photovoltaic applications, with methodology serving as foundation for future photovoltaic technology advancement.
Training activities and lessons in physics, mathematics and chemistry for university and high school students.