Niko Van den Brande

Niko Van den Brande is a Researcher in Sustainable Materials Engineering at the Faculty of Engineering, Vrije Universiteit Brussel (VUB), Brussels, Belgium. His research focuses on polymer chemistry, sustainable materials development, and advanced material characterization techniques. With an h-index of 21 and over 1074 citations, he has established himself as a significant contributor to materials science.

His research interests span polymer chemistry, sustainable materials engineering, self-healing polymers, Diels-Alder reactions, lignin-based thermosets, organic electronics, thermal analysis, and crystallization phenomena. His work bridges fundamental chemical principles with practical applications in sustainable material design and engineering.

Van den Brande's recent publications demonstrate a strong focus on dynamic polymer networks, self-healing mechanisms, and sustainable material systems. His research integrates computational modeling, experimental synthesis, and advanced characterization techniques to develop next-generation materials with applications in soft robotics, organic electronics, and circular economy systems.

Scientific Awards:

• 18th Annual meeting of the Belgian Polymer Group, BPG-2011 Poster Prize (2011)
• ChemCYS 2012 prize for the best oral presentation in Polymer Chemistry (2012)
• Solvay Award (2010)
• TAWN Thermal Analysis Award (2012)

Van den Brande actively participates in numerous research projects including FWOSBO63 (MycoMatters), HERC65 (X-Ray Approach), OZR4285 (Microbe Cultivation Infrastructure), FWOTM1156 (Self-Healing Networks), and FWOSBO54 (Lignin-based Thermosets). His collaborative work spans multiple institutions and involves interdisciplinary teams focusing on sustainable material solutions.

His research group collaborates extensively within the Belgian Polymer Group and participates in international conferences, demonstrating strong engagement with the global materials science community. Current projects indicate active work in mycelium-based materials, fungal engineered living materials, and sustainable polymer networks for various applications.