Unknown

Dataset Information

0

A 3D Collagen-Based Bioprinted Model to Study Osteosarcoma Invasiveness and Drug Response.


ABSTRACT: The biological and therapeutic limits of traditional 2D culture models, which only partially mimic the complexity of cancer, have recently emerged. In this study, we used a 3D bioprinting platform to process a collagen-based hydrogel with embedded osteosarcoma (OS) cells. The human OS U-2 OS cell line and its resistant variant (U-2OS/CDDP 1 μg) were considered. The fabrication parameters were optimized to obtain 3D printed constructs with overall morphology and internal microarchitecture that accurately match the theoretical design, in a reproducible and stable process. The biocompatibility of the 3D bioprinting process and the chosen collagen bioink in supporting OS cell viability and metabolism was confirmed through multiple assays at short- (day 3) and long- (day 10) term follow-ups. In addition, we tested how the 3D collagen-based bioink affects the tumor cell invasive capabilities and chemosensitivity to cisplatin (CDDP). Overall, we developed a new 3D culture model of OS cells that is easy to set up, allows reproducible results, and better mirrors malignant features of OS than flat conditions, thus representing a promising tool for drug screening and OS cell biology research.

SUBMITTER: Pellegrini E 

PROVIDER: S-EPMC9571197 | biostudies-literature | 2022 Sep

REPOSITORIES: biostudies-literature

altmetric image

Publications

A 3D Collagen-Based Bioprinted Model to Study Osteosarcoma Invasiveness and Drug Response.

Pellegrini Evelin E   Desando Giovanna G   Petretta Mauro M   Cellamare Antonella A   Cristalli Camilla C   Pasello Michela M   Manara Maria Cristina MC   Grigolo Brunella B   Scotlandi Katia K  

Polymers 20220928 19


The biological and therapeutic limits of traditional 2D culture models, which only partially mimic the complexity of cancer, have recently emerged. In this study, we used a 3D bioprinting platform to process a collagen-based hydrogel with embedded osteosarcoma (OS) cells. The human OS U-2 OS cell line and its resistant variant (U-2OS/CDDP 1 μg) were considered. The fabrication parameters were optimized to obtain 3D printed constructs with overall morphology and internal microarchitecture that ac  ...[more]

Similar Datasets

| S-EPMC8971536 | biostudies-literature
| S-EPMC7215771 | biostudies-literature
| S-EPMC8940744 | biostudies-literature
| S-EPMC7283506 | biostudies-literature
| S-EPMC11905052 | biostudies-literature
| S-EPMC6107500 | biostudies-literature
| S-EPMC9267600 | biostudies-literature
| S-EPMC11375967 | biostudies-literature
| S-EPMC4954604 | biostudies-literature
| S-EPMC8008502 | biostudies-literature