Scientific Sessions

• Surface modification and functionalization techniques
• Thin films, coatings, and interface engineering
• Nanostructured surfaces for energy and biomedical applications
• Adhesion, friction, and tribology studies
• Characterization of interfaces at micro- and nanoscale
• Integration of nanomaterials in surface engineering
• Computational modeling of surface interactions

Surface Science and Interface Engineering explores the crucial role of surfaces and interfaces in Material Science and Nanotechnology. This session emphasizes Advanced Materials Research aimed at designing functional coatings, thin films, and nanostructured surfaces that enhance material performance. Participants will examine Nanomaterials & Nanotechnology approaches to improve adhesion, durability, conductivity, and biocompatibility. Metallurgy & Alloys are incorporated for surface treatment of metals and composites, enhancing mechanical, thermal, and chemical resistance in advanced applications.

The session also focuses on strategies to engineer interfaces for energy storage, catalysis, and biomedical devices. Attendees will learn techniques for surface functionalization, interface modeling, and experimental validation. By integrating Material Science and Nanotechnology, Advanced Materials Research, Nanomaterials & Nanotechnology, and Metallurgy & Alloys, participants will be equipped to develop surfaces with tailored properties that optimize performance across multiple industrial and research applications.

Key Highlights

• Functional surface modification and thin film engineering
• Nanostructured surfaces for energy and biomedical devices
• Adhesion, friction, and tribology studies
• Metallurgical applications in surface enhancement
• Interface characterization and modeling techniques

Why This Session Is Important?

Surface properties determine material behavior in applications. This session empowers participants to design and engineer interfaces that improve durability, functionality, and performance.