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Advancing novel therapies with synthetic immunology

Synthetic immunology enables the precise analysis and modification of immune recognition processes at the single-cell level. By leveraging advanced tools such as DNA nanotechnology and microfluidics, researchers are developing methods to characterize and program immune cells with unparalleled precision and throughput. These efforts are driving innovations in the development of therapies, such as genetically engineered immune cells for cancer treatment and synthetic vaccines to combat infectious diseases.

In addition to enhancing existing approaches, synthetic immunology explores novel directions, including the assembly of fully artificial immune cells for diagnostic and therapeutic applications. Advanced computational tools, such as bioinformatics, mathematical modeling, and machine learning, are being developed to better understand the complex interactions between natural and artificial immune cells and the host organism.

By integrating these cutting-edge technologies, synthetic immunology is creating new possibilities for personalized and effective treatments, shaping the future of diagnostics and therapies in immune-related diseases. To facilitate these advances further, the Alliance has established the Microfluidics Core Facility (µFlu CF). This facility provides state-of-the-art infrastructure for creating and testing synthetic cells, offering shared access to all Alliance institutions to foster collaboration and accelerate the development of new diagnostic and therapeutic solutions.