Integrating multi-omics data to understand Pseudomonas as complex biological systems. This session covers transcriptomics, proteomics, metabolomics, network analysis, and computational modeling to uncover emergent properties and regulatory networks.

Examining host-pathogen interactions and immune mechanisms during Pseudomonas infections. This session covers innate and adaptive immunity, immune evasion strategies, inflammatory responses, and the role of the microbiome in shaping immune outcomes.

Harnessing Pseudomonas as a programmable chassis for industrial and biotechnological applications. This session covers engineered metabolic pathways, genetic circuits and toolkits, biosensors, and the design of robust strains for next-generation bioprocesses and the circular bioeconomy.

Exploring Pseudomonas interactions with plant hosts, from devastating pathogens to beneficial symbionts. This session covers virulence mechanisms, host immunity, biocontrol applications, and the ecological roles of Pseudomonas in agriculture and natural ecosystems.

Examining the full spectrum of Pseudomonas clinical manifestations beyond traditional respiratory infections. This session welcomes research on cardiac, ocular, bloodstream, urinary tract, wound and other site-specific infections, including biofilm-associated and device-related infections and the host responses that shape their outcome.

Exploring the metabolic versatility and physiological adaptations that enable Pseudomonas species to thrive in diverse environments. Topics include nutrient acquisition, energy metabolism, stress responses, and metabolic regulation across environmental and host-associated niches.

Examining how Pseudomonas coordinates movement and group behaviors through sophisticated signaling systems. Topics include flagellar- and pilus-mediated motility, biofilm formation, swarming, and quorum-sensing networks that regulate community-level responses.

Exploring evolutionary processes shaping Pseudomonas diversity and adaptation. Topics include experimental evolution, phylogenomics, adaptive mutations, population genetics, and evolutionary dynamics in both natural environments and during host colonization.

Investigating competitive and cooperative interactions between Pseudomonas and other microorganisms. Topics include bacteriocins, contact-dependent inhibition systems, phage-bacteria dynamics, and the molecular mechanisms governing microbial competition and coexistence.

Addressing the critical challenge of antibiotic resistance in Pseudomonas . This session covers resistance mechanisms, evolution of multidrug resistance, novel antimicrobial strategies, diagnostic approaches, and stewardship efforts to combat resistant infections.

Revealing the molecular mechanisms that govern Pseudomonas biology through three-dimensional structures of its proteins and complexes. This session covers structure determination, macromolecular assemblies, integrative and systems-level modeling, and how atomic-resolution insights explain pathogenesis, antibiotic resistance, and adaptive strategies.