26th LISBON World Congress on Chemical Complexity, Functional Matter & Molecular Systems: C3FM2S-26

Call for papers/Topics

Topics of Interest for Submission include, but are Not Limited to:


1. Foundations of Chemical Complexity

This area focuses on the theoretical and mathematical principles that govern how simple building blocks give rise to complex behavior.

  • Information Theory in Chemistry

    • Quantifying molecular complexity (complexity indices).

    • Information storage and retrieval in molecular sequences (e.g., DNA-inspired data storage).

    • Chemical algorithms and molecular logic gates.

  • Non-Equilibrium Dynamics

    • Dissipative structures and energy-driven systems.

    • Far-from-equilibrium self-assembly (active matter).

    • Chemical oscillations, waves, and pattern formation (e.g., Belousov–Zhabotinsky reactions).

  • Systems Chemistry

    • Autocatalytic sets and self-replicating molecular networks.

    • Feedback loops (positive and negative) in chemical pathways.

    • Metabolic network modeling and synthetic protocells.


2. Molecular Systems & Supramolecular Chemistry

This pillar examines how molecules "recognize" each other and assemble into larger, non-covalently bonded structures.

  • Molecular Recognition & Binding

    • Host-guest chemistry (crown ethers, cyclodextrins, cucurbiturils).

    • Cooperativity and multivalency in binding events.

    • Dynamic Covalent Chemistry (DCC) and adaptive libraries.

  • Self-Assembly & Self-Organization

    • Hierarchical assembly (from molecules to nanostructures to bulk matter).

    • Templated assembly and molecular scaffolding.

    • Supramolecular polymers and liquid crystals.

  • Molecular Machines & Actuators

    • Artificial molecular motors (rotary and linear).

    • Molecular switches and shuttles (rotaxanes and catenanes).

    • Translation of molecular motion to macroscopic work.


3. Functional Matter & Smart Materials

This section deals with the "output"—materials designed to respond to their environment or perform specific physical functions.

  • Stimuli-Responsive Materials (Smart Matter)

    • Photo-responsive systems (azobenzenes, diarylethenes).

    • Thermo-responsive polymers (LCST/UCST behavior).

    • pH-sensitive hydrogels and ion-responsive membranes.

  • Adaptive & Self-Healing Matter

    • Intrinsic self-healing via reversible bonding (hydrogen bonds, metal-ligand).

    • Vitreous polymers (vitrimers) and malleable networks.

    • Shape-memory alloys and polymers.

  • Electronic & Photonic Functional Materials

    • Organic electronics (OLEDs, OFETs, organic photovoltaics).

    • Conductive supramolecular wires and molecular junctions.

    • Metamaterials and photonic crystals with tunable refractive indices.


4. Interrelated & Emergent Themes

These topics represent the interface where complexity, function, and systems overlap to create properties that individual components do not possess.

  • Emergence & Cooperativity

    • Emergent catalysis: Functions arising from molecular aggregates that single molecules cannot perform.

    • Phase separation and coacervation in biological and synthetic systems.

    • Symmetry breaking in chemical systems.

  • Bio-Inspired & Integrative Systems

    • Biomineralization (organic-inorganic interfaces).

    • Artificial photosynthesis and solar fuel assemblies.

    • Neuromorphic chemical sensing (mimicking neural networks with chemical pulses).

  • Characterization & Computational Tools

    • High-resolution imaging (AFM, Cryo-EM) of complex assemblies.

    • Multi-scale modeling (from DFT to coarse-grained molecular dynamics).

    • Machine learning for predicting emergent properties in chemical mixtures.