Author

C. Verfaillie

Listed by name: these papers carry no ORCID for this author, so different people with the same name may be mixed together.

Biology Disciplines

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Bioengineering· 4 Cell Biology· 1

Signature Assays, Organisms & Methods

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Approach:experimental assay· 5 Research Focus:cell type annotation· 4 Research Focus:development & morphogenesis· 3 Organism:human· 3 Research Focus:clustering· 2 Organism:mouse· 2 Assay:scRNA-seq· 2 Assay:bulk RNA-seq· 1

Frequent Co-Authors

A. Ranga· 3 shared G. Rustandi· 3 shared A. R. Abdel Fattah· 2 shared I. Salmon· 2 shared S. Grebeniuk· 2 shared A. Janiszewski· 1 shared A. Pastore· 1 shared A. R. A. Fattah· 1 shared

Activity by Year

2019-2023 · peak 2/yr

Co-Author Collaboration Network

10 top collaborators · 19 mutual co-author links

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3 shared papersBioengineering

A. Ranga

Mutual co-authors in cluster

Author profile →

5 papers

Recent·Most cited

Robotics-driven manufacturing of cartilaginous microtissues for the bio-assembly of skeletal implants

I. Decoene, G. Nasello, R. F. Madeiro, G. Nilsson Hall, A. Pastore, I. Van Hoven, S. Ribeiro Viseu, C. Verfaillie, L. Geris, F. Luyten, I. Papantoniou

This paper develops a robotic system for automated manufacturing of cartilaginous microtissues, showing improved control and differentiation into cartilage and bone.

bioRxiv · Jan 9, 2023 · PreprintBioengineering

Engineering large-scale perfused tissues via synthetic 3D soft microfluidics

S. Grebeniuk, A. R. Abdel Fattah, G. Rustandi, M. Kumar, B. Toprakhisar, I. Salmon, C. Verfaillie, A. Ranga

This paper develops a synthetic 3D microfluidic platform to perfuse large engineered tissues, demonstrating viability and accelerated neural differentiation in perfused constructs.

bioRxiv · Aug 20, 2021 · PreprintBioengineering

Engineering neurovascular organoids with 3D printed microfluidic chips

I. Salmon, S. Grebeniuk, A. R. Abdel Fattah, G. Rustandi, T. Pilkington, C. Verfaillie, A. Ranga

This paper develops a 3D printed microfluidic chip to vascularize human pluripotent stem cell-derived organoids, enabling co-development with vascular cells.

bioRxiv · Jan 9, 2021Bioengineering

Actuation Enhances Patterning in Human Neural Tube Organoids

A. R. A. Fattah, B. Daza, G. Rustandi, M. A. Berrocal-Rubio, B. Gorissen, S. Poovathingal, K. Davie, X. Cao, D. H. Rosenzweig, Y. Lei, R. Finnell, C. Verfaillie, M. Sampaolesi, P. Dedecker, H. Van Oosterwyck, , A. Ranga

The paper shows that applying active mechanical forces to human neural tube organoids enhances their patterning and growth through temporally restricted mechanoregulation.

bioRxiv · Sep 22, 2020Bioengineering

Temporal resolution of global gene expression and DNA methylation changes in the final phases of reprogramming towards induced pluripotency.

M. Bartoccetti, X. Luo, B. van der Veer, R. Khoueiry, A. Janiszewski, J. Xu, C. Verfaillie, V. Pasque, B. Thienpont, K. P. Koh

This study identifies sequential activation of Tet1 and Oct4 during iPSC reprogramming, revealing distinct DNA demethylation waves and epigenetic dynamics critical for generating high-quality iPSCs.

bioRxiv · Feb 13, 2019 · PreprintCell Biology