Research

We enable innovation in
immune engineering.

The scientific foundation of the BIIE and the broader field of Immune Engineering is based on the intersection of three interdisciplinary subdomains: (i) systems immunology, (ii) synthetic immunology and (iii) computational immunology. The BIIE will serve as a hub for multidisciplinary science, by uniting people with diverse expertise in immunology, biomedicine, bioengineering, systems and synthetic biology, computational biology, artificial intelligence and machine learning. As part of the mission of BIIE to make a lasting impact, it will dedicate significant efforts in training early-stage researchers in this unique multidisciplinary environment, thus enabling them to become future leaders in Immune Engineering.

Systems
Immunology

This branch of immune engineering delves into the complex interactions among the molecular and cellular elements of the immune system. By studying these interactions, systems immunology aims to uncover how these components work together to perform critical functions, from defending the body against pathogens to preventing diseases.

Computational
Immunology

Utilizing powerful data analysis tools, computational immunology applies mathematical and statistical models, as well as artificial intelligence to make sense of vast immunological data. This field enables researchers to simulate and predict how the immune system reacts under various conditions, providing insights that are crucial for the development of effective therapies.

Synthetic
Immunology

At the cutting edge of immune engineering, synthetic immunology involves the design and modification of immune system components to both enhance our understanding of immunology and develop new diagnostic tools and treatments. This innovative approach holds promise for breakthroughs in precision medicine and vaccine design.

At BIIE, these pillars are
not rigid categories

At BIIE, these pillars are not rigid categories but serve as a flexible framework that encourages overlap and cooperation across different research areas. This integration allows researchers to explore innovative solutions that cut across traditional boundaries, creating a dynamic environment for scientific discovery and application.

As Immune Engineering continues to evolve, it promises to transform our approach to medicine, leading to breakthroughs that could improve the lives of millions, including young people and globally. The implications for human health are vast and full of potential, signaling a new era in medical science.