1st International Workshop on

Computational Methods for the Immune System Function (CMISF 2017)

in conjunction with the IEEE International Conference on Bioinformatics and Biomedicine (BIBM 2017)

to be held at Kansas City, MO, USA on November 13, 2017

 

List of accepted papers and tentative schedule now available!

See you on Nov 13rd, room 8 in the morning at The Westin Kansas City at Crown Center!


New Deadline!

Deadline for workshop paper submission extended to October 2, 2017.


Scope


The constant and rapid increasing of computing power has favored the diffusion of computational methods into immunology, giving the birth to computational immunology. Computational immunology, known also as immunological bioinformatics or immunoinformatics, is a modern research area that embraces data-driven computational and mathematical approaches able to model and describe the dynamics of cellular and molecular entities of the immune system, its disorders, and infections. Nowadays, immunoinformatics is dedicated to methods and tool developments for the analyses of omic-type data in immunology and knowledge inference using simulation, statistical inference, and machine learning algorithms. These fields are complementary key drivers of data-driven basic and translational immunology research for the benefit of human and animal health.


The Workshop will focus on the application of computer methods and computational models, at any level of description (e.g., microscopic/intracellular, mesoscopic/intercellular, macroscopic/tissue or organs), for the modeling of the Immune system function, along with their application in understanding the pathogenesis of specific diseases (e.g., infectious diseases, cancers, hypersensitivities, autoimmune disorders).


Topics


Topics of interest will include, but are not limited to:


  1. Modeling techniques, tools and approaches (e.g., agent based modeling, equation based modeling, network studies);

  2. Computational models for cancer immunotherapy, autoimmune diseases, allergies and infectious diseases;

  3. Spatially-extended models (e.g., models of lymph channels and/or lymph nodes);

  4. Methods for in silico testing and optimization of therapeutic/vaccination schedules;

  5. Multi-scale models and methods for encompassing two or more spatial and/or temporal scales (e.g., from cell functions to organs);