Vasileios Trikalitis

Vasileios Trikalitis is a Researcher at the University of Twente's Advanced Manufacturing, Sustainable Products & Energy Systems department, specializing in cutting-edge bioprinting methodologies for tissue engineering and vascularization. His work bridges advanced manufacturing with regenerative medicine through innovative hydrogel and bioink development.

Education:

• PhD in Tissue Bioprinting (University of Twente, 2024)
• MSc (institution unspecified)

His research focuses on solving fundamental challenges in vascular network formation within engineered tissues, with particular expertise in embedded 3D printing techniques using granular baths and shear-thinning materials. He pioneers approaches like aptamer-based programmable bioinks and Magnetic Nozzle-Free Embedded 3D Printing to achieve precise microvascular morphogenesis. His work integrates principles from hydrogel engineering, growth factor delivery, and microfluidics to create biomimetic tissue constructs.

Analysis of his 2023-2025 publications reveals a strategic progression from foundational embedded printing techniques toward increasingly sophisticated vascularization strategies. Key trends include the development of multi-material printing systems, dynamic bioink programming for 4D tissue evolution, and integration of biological cues like vascular endothelial growth factors. His research consistently targets clinical translation barriers in regenerative medicine through engineering-first solutions.

Scientific Awards:

• No awards documented in provided materials

While no formal advising relationships or grant awards are specified, his extensive collaborative network—evident in co-authorships with Rouwkema, Misra, and Schwach—demonstrates active participation in large-scale research initiatives. His conference presentations track methodological evolution from basic bioprinting (2018-2019) toward advanced vascularization techniques (2023-2025).

Dr. Trikalitis operates within University of Twente's interdisciplinary biomanufacturing ecosystem, contributing to teams focused on sustainable advanced manufacturing applications in medical technology. His work particularly advances the intersection of granular mechanics, hydrogel science, and vascular tissue engineering through experimental innovation.