At the heart of my teaching philosophy is a student-centered approach that prioritizes inclusivity, diversity, and active learning. I firmly believe in creating an environment where every student feels valued, respected, and empowered to engage actively in their learning journey. By employing diverse interactive methods and incorporating technology, I aim to foster a dynamic learning experience that caters to the needs and preferences of a broadly diverse cohort.

Grounded in pedagogic theories such as constructivism and critical alignment, my teaching strategies emphasize the importance of knowledge construction, critical thinking, and removing barriers to learning. I design stimulating materials, learning environments, assessments, practical sessions, and simulations to enhance student engagement and promote deep learning.

Feedback is integral to my teaching practice, and I continuously strive to improve my teaching skills to meet the evolving needs of my students. Beyond imparting scientific knowledge, I aim to instill resilience, survival skills, and moral values in my students, preparing them to positively impact the world. My ultimate goal is to leave every student with an outstanding learning experience, equipping them with the tools and mindset to thrive academically and beyond.

My journey in Medical Laboratory Science and Immunology began with a focus on infectious diseases, where I explored immune system dynamics in health and disease. My work in infectious immunology, particularly in vaccinology and maternal and child health, has contributed to disease understanding and vaccine development, including efforts during the COVID-19 pandemic. Over time, my research shifted towards cancer immunology, specifically the tumour microenvironment (TME), with the goal of advancing cancer management and treatment.

As a member of the Centre for Regenerative Medicine and Medical Devices, I focus on 3D bioprinting to model the TME, enabling the study of immune-tumour-stroma interactions, immune evasion, and drug response. These models support the development of immune checkpoint inhibitors, CAR-T cell therapies, and personalized treatment strategies using patient-derived cells. Additionally, I explore bioprinted scaffolds as immunomodulatory platforms to reprogram the TME, aiming not only to combat tumours but also to promote tissue regeneration post-tumour resection. My background in infectious immunology equips me with transferable skills in immune response analysis, inflammation research, and experimental modelling, which inform my work in designing bioprinted systems that replicate key tumour and regenerative processes.

Bridging infectious disease research with tumour immunology and regenerative medicine, I aim to develop advanced models that integrate therapeutic discovery with tissue engineering, driving innovations in immunotherapy and personalized healthcare solutions.

My research and supervision interests converge at the dynamic intersection of cancer biology, neuro-oncology, and infectious immunology. A primary focus lies in elucidating the intricacies of the tumor microenvironment, and exploring innovative strategies for its modulation to enhance therapeutic outcomes. In the realm of neuro-oncology, my passion is dedicated to advancing interventions for tumors affecting the nervous system, delving into novel approaches for diagnosis and treatment. Simultaneously, infectious immunology captivates my curiosity, as I investigate immune responses to infections and their implications for health.

This multidisciplinary approach underscores my commitment to understanding the complexities of diseases that pose significant challenges to global health. By exploring the modulation of tumor microenvironments, advancing neuro-oncological interventions, and unraveling the mysteries of infectious immunology, my aim is to contribute impactful insights that may shape future therapeutic interventions and improve patient outcomes across diverse medical domains.