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Šavija Branko

Information

ORCID
0000-0003-1299-1449
First Contribution
2019-06-07
Last Contribution
2025-06-16
Number Contributions
31
Number Citations
590

Top Co-Authors

  1. Schlangen Erik (20)
  2. Xu Yading (13)
  3. Chang Ze (10)
  4. Liang Minfei (6)
  5. Bos Freek (5)

Persons This Author Cites the Most

  1. Bos Freek (109)
  2. Mechtcherine Viktor (84)
  3. Salet Theo (84)
  4. Wolfs Robert (79)
  5. Nerella Venkatesh (62)

Persons This Author Is Cited Most By

  1. Salet Theo (18)
  2. Bos Freek (17)
  3. Panda Biranchi (15)
  4. Xiao Jianzhuang (15)
  5. Mechtcherine Viktor (14)


  1. Gomez Jaramillo Laura, Luković Mladena, Šavija Branko, Zhou Wen (2025-06)
    Recycled Sand for 3D-Printed Strain Hardening Cementitious Composite:
    A Review of Recent Developments
  2. Nieświec Martyna, Chajec Adrian, Šavija Branko (2025-05)
    Effect of Ground Copper Slag on the Fresh Properties of 3d Printed Cementitious Composites
  3. Zhou Wen, Xu Yading, Meng Zhaozheng, Xie Jinbao et al. (2025-03)
    Filament Stitching:
    An Architected Printing Strategy to Mitigate Anisotropy in 3D-Printed Engineered Cementitious Composites
  4. Chajec Adrian, Šavija Branko (2024-09)
    The Effect of Using Surface Functionalized Granite-Powder-Waste on Fresh Properties of 3D Printed Cementitious Composites
  5. Wan Zhi, Xu Yading, Šavija Branko (2024-09)
    Creating Vascular Self-Healing Concrete Using Direct Ink Writing
  6. Zhou Wen, Xu Yading, Šavija Branko, McGee Wesley et al. (2024-09)
    Stitching Engineered Cementitious Composites (ECC ):
    Unraveling Anisotropy Challenges Through Architectured 3D Printing Path Design
  7. Tittelboom Kim, Mohan Dhanesh, Šavija Branko, Keita Emmanuel et al. (2024-08)
    On the Micro-and Meso-Structure and Durability of 3D Printed Concrete Elements
  8. Wan Zhi, Xu Yading, He Shan, Schlangen Erik et al. (2024-01)
    The Use of Additive Manufacturing in Self-Healing Cementitious Materials:
    A State of the Art Review
  9. Overmeir Anne, Šavija Branko, Bos Freek, Schlangen Erik (2023-09)
    Effects of 3D Concrete Printing Phases on the Mechanical Performance of Printable Strain-Hardening Cementitious Composites
  10. Chang Ze, Chen Yu, Schlangen Erik, Šavija Branko (2023-09)
    A Review of Methods on Buildability Quantification of Extrusion-Based 3D Concrete Printing:
    From Analytical Modelling to Numerical Simulation
  11. Chang Ze, Liang Minfei, He Shan, Schlangen Erik et al. (2023-09)
    Lattice-Modelling of Early-Age Creep of 3D Printed Segments with the Consideration of Stress-History
  12. Chang Ze, Liang Minfei, Chen Yu, Schlangen Erik et al. (2023-09)
    Does Early-Age Creep Influence Buildability of 3D Printed Concrete?:
    Insights from Numerical Simulations
  13. Overmeir Anne, Šavija Branko, Bos Freek, Schlangen Erik (2023-08)
    3D Printable Strain-Hardening Cementitious Composites (3DP-SHCC):
    Tailoring Fresh and Hardened State Properties
  14. Xu Yading, Šavija Branko (2023-08)
    3D Auxetic Cementitious-Polymeric Composite Structure with Compressive Strain-Hardening Behavior
  15. Chen Yu, Liang Minfei, Zhang Yu, Li Zhenming et al. (2023-02)
    Can Superabsorbent Polymers Be Used as Rheology-Modifiers for Cementitious Materials in the Context of 3D Concrete Printing
  16. Chang Ze, Liang Minfei, Xu Yading, Wan Zhi et al. (2023-02)
    Early-Age Creep of 3D Printable Mortar:
    Experiments and Analytical Modelling
  17. Chang Ze, Liang Minfei, Xu Yading, Schlangen Erik et al. (2022-08)
    3D Concrete Printing:
    Lattice Modeling of Structural Failure considering Damage and Deformed Geometry
  18. Chang Ze, Zhang Hongzhi, Liang Minfei, Schlangen Erik et al. (2022-07)
    Numerical Simulation of Elastic Buckling in 3D Concrete Printing Using the Lattice-Model with Geometric Non-Linearity
  19. Nefs Karsten, Overmeir Anne, Salet Theo, Suiker Akke et al. (2022-06)
    Consistency of Mechanical Properties of 3D Printed Strain-Hardening Cementitious Composites Within One Printing System
  20. Chang Ze, Wan Zhi, Xu Yading, Schlangen Erik et al. (2022-06)
    Convolutional Neural Network for Predicting Crack-Pattern and Stress-Crack-Width Curve of Air-Void Structure in 3D Printed Concrete
  21. Chen Yu, Chang Ze, He Shan, Çopuroğlu Oğuzhan et al. (2022-04)
    Effect of Curing Methods During a Long Time-Gap Between Two Printing Sessions on the Inter-Layer Bonding of 3D Printed Cementitious Materials
  22. Overmeir Anne, Figueiredo Stefan, Šavija Branko, Bos Freek et al. (2022-02)
    Design and Analyses of Printable Strain-Hardening Cementitious Composites with Optimized Particle-Size-Distribution
  23. Wu Zixia, Xu Yading, Šavija Branko (2021-12)
    Mechanical Properties of Lightweight Cementitious Cellular Composites Incorporating Micro-Encapsulated Phase-Change-Material
  24. Chang Ze, Xu Yading, Chen Yu, Gan Yidong et al. (2021-05)
    A Discrete Lattice-Model for Assessment of Buildability Performance of 3D Printed Concrete
  25. Šavija Branko (2020-09)
    Use of 3D Printing to Create Multi-Functional Cementitious Composites:
    Review, Challenges and Opportunities
  26. Chang Ze, Schlangen Erik, Šavija Branko (2020-07)
    Extended-Lattice-Model to Simulate the Printing-Process of 3D Printed Cementitious Materials
  27. Figueiredo Stefan, Overmeir Anne, Nefs Karsten, Schlangen Erik et al. (2020-07)
    Quality-Assessment of Printable Strain-Hardening Cementitious Composites Manufactured in Two Different Printing Facilities
  28. Xu Yading, Schlangen Erik, Šavija Branko (2020-07)
    Auxetic Behavior of Cementitious Cellular Composites under Uniaxial Compression and Cyclic Loading
  29. Xu Yading, Zhang Hongzhi, Schlangen Erik, Luković Mladena et al. (2020-04)
    Cementitious Cellular Composites with Auxetic Behavior
  30. Panda Biranchi, Mohamed Nisar, Paul Suvash, Bhagath Singh Gangapatnam et al. (2019-07)
    The Effect of Material Fresh Properties and Process Parameters on Buildability and Inter-Layer Adhesion of 3D Printed Concrete
  31. Xu Yading, Šavija Branko (2019-06)
    Development of Strain-Hardening Cementitious Composite (SHCC) Reinforced with 3D Printed Polymeric Reinforcement:
    Mechanical Properties