Explores self-assembly of Microsystems, its importance, features, motivations, and examples in various fields, highlighting landmark achievements and future prospects.
Explores self-organized growth at surfaces and covers instrumentation, destructive exposure, manipulation with SIM, nanostructures, and thin film growth.
Explores methods for probe immobilization on surfaces, including self-assembly and peptide bonds, discussing the role of hydrophobic interactions and kinetic models.
Explores the evolution of micro and nanoengineering, focusing on the use of silicon as a mechanical material and the application of AFM and T-SPL in nanoengineering.
Covers the properties of soft matter, including self-assembly, polymers, colloids, intermolecular forces, and the significance of soft materials in diverse applications.
Explores forces and structures of biomolecular condensates, including direct and indirect forces, compartmentalization, and phase separation of Intrinsically Disordered Proteins.
Delves into the production of biological materials through self-assembly in living cells and the advancements in synthetic biology for sustainable materials.
Explores the self-assembly of heterobimetallic systems to create robust duplexes in water, emphasizing the importance of synthetic H-bond systems for materials fabrication.
