Academic Profile

Yu-jie Huang is an associate professor at the School of Environment and Safety Engineering, University of China. He received his BSc from Central South University and PhD from Zhejiang University. His research encompasses 3D printing of high-performance composites and the development of advanced numerical methods. His work on in-situ CT experiments and fracture simulations has 500+ citations for a single publication. He has been the PI of seven projects, including the National Natural Science Foundation of China (General Program). He serves as an Executive Guest Editor for Theoretical and Applied Fracture Mechanics. He was awarded Second Prize of the Natural Science Award of Zhejiang Province, First Prize of Excellent Engineering Design Award of Zhejiang Province, among others. (email: [email protected])

Editorial Roles

No Editorial Roles

This user currently does not serve as an editor for any ICCK journals.

ICCK Publications

Total Publications: 1
Open Access | Research Article | 24 February 2026
Engineering 3D-Printed UHPC: Optimising Fibre Content and Printing Direction for Enhanced Mechanical Performance
Journal of Advanced Materials Research | Volume 2, Issue 1: 40-54, 2026 | DOI: 10.62762/JAMR.2026.817012
Abstract
3D-printed ultra-high-performance concrete (3DP-UHPC), which combines high strength, high toughness, and construction flexibility, provides a solution to the reinforcement difficulty of conventional printed concrete. However, the layer-by-layer printing process induces pronounced anisotropy in compressive and flexural properties, which remains a key challenge for engineering applications. We used X-ray computed tomography (X-CT) to quantitatively analyse the internal pores and to reveal the orientation and distribution of steel fibres in 3DP-UHPC. Splitting tensile tests showed that the interlayer splitting tensile strength is approximately 49.3% lower than the conventional splitting tensile... More >

Graphical Abstract
Engineering 3D-Printed UHPC: Optimising Fibre Content and Printing Direction for Enhanced Mechanical Performance