Born in Portugal, I have spent the past five years in Cambridge, UK, cultivating a robust academic and professional background. I hold a BSc in Biomedical Science (First Class) and an MSc in Applied Bioscience (2:1) from Anglia Ruskin University. My professional experience includes over three years in key roles: Senior Trainer and Genetic Technologist at Oncologica during the COVID-19 pandemic, Laboratory Demonstrator, and Laboratory Technician at ARU. Prior to commencing my PhD studies at UWA, I served as a Research Assistant at the University of Cambridge for over a year. My diverse experience underscores a strong commitment to advancing scientific research and education, blending academic excellence with practical expertise in biosciences.

My keen interest in human biology and passion for scientific research have been cultivated throughout my academic journey. During my undergraduate and master’s studies, I extensively explored genetic expression and disease mechanisms, complemented by practical experience in my professional career. This firsthand exposure underscored the profound impact of pioneering research on patient outcomes. The centre’s esteemed reputation and unwavering commitment to biomedical challenges immediately caught my attention. Its collaborative environment, state-of-the-art resources, and emphasis on innovation perfectly align with my career objectives. I am enthusiastic about the opportunity to become part of this esteemed research community, eager to contribute meaningfully and continue my professional development.

This PhD project aims to innovate cell biology studies and disease modelling by transitioning from traditional two-dimensional tissue plastics to three-dimensional multicellular spheroids (MCSs). Unlike the rigid and artificial nature of two-dimensional setups, MCSs offer intricate architectural structures and dynamic cell–cell/cell–matrix interactions, closely resembling in vivo micro environments. By focusing on developing bioprintable multicellular skin spheroids that mimic inflammatory and fibrotic responses, this research seeks to address the limitations of current models. The objectives include rigorously validating these models using biomarkers, transcriptome analysis, and genome studies to ensure their authenticity. The potential impact of this project on the field is significant. It will bridge the gap between in vitro and in vivo models, providing more accurate representations of tissue physiology. Ultimately, this research has the potential to enhance patient care as well as lead to other research opportunities in the long term.

Through my research endeavors, I endeavor to contribute to the advancement of our understanding of human biology and the enhancement of medical outcomes. My goal is to unearth fresh insights into the Development of 3D Cell Biology Models for Inflammation and Fibrosis, with the ultimate aim of translating these discoveries into tangible benefits for patients. I am convinced that the centre, with its objective to strive for pioneering research and unwavering dedication to addressing critical biomedical challenges, will serve as an invaluable catalyst in achieving these objectives. The collaborative nature of the centre, access to cutting-edge resources, and emphasis on innovation epitomize an environment perfectly suited to my research aspirations. I am grateful for the opportunity to align myself with the centre and am confident that the support and resources provided will empower me to make significant contributions to the field while fostering my professional development.

Throughout my younger years, from childhood to my teenage days, I underwent classical training in operatic singing, focusing on the lyric soprano range. While I no longer perform professionally, I still love to sing for fun every now and then.