I. T. Ozbolat

This study uses intraoperative bioprinting of human adipose-derived stem cells and extracellular matrix to reconstruct full-thickness skin defects in rats, achieving wound closure and hair follicle-like structures within two weeks.

This paper introduces Intra-Embedded Bioprinting (IEB), a method for creating complex, nested organ models with internal anatomical features using a xanthan gum-based material.

This study develops a 3D printed lung model to investigate how ventilation affects viral infection and lung responses in vitro.

This paper introduces a versatile, photocrosslinkable silicone composite for 3D printing, demonstrating its use as a support bath and extrudable ink for creating complex microfluidic devices and biomedical constructs.

This study uses 3D bioprinting to create nasal epithelium models from patient-derived cells, enabling high-throughput fabrication and recapitulating native epithelial architecture and virus infection capability.

This paper develops a high-throughput method for producing microgels with tunable properties and cell encapsulation capabilities for bioprinting and tissue engineering applications.

This paper develops a 3D bioprinted vascularized breast tumor model to dynamically screen chemotherapeutics and CAR-T cells, showing dose-dependent drug response and significant tumor reduction with CAR-T treatment.

This study develops 3D breast cancer models with engineered MAIT cell receptors to assess their cytotoxic activity against tumor cells.

This study demonstrates the use of alginate microgels as a support bath for aspiration-assisted freeform bioprinting of hMSC spheroids, achieving high fusion efficiency and positional accuracy for bone tissue fabrication.

This study investigates how protein concentration affects drop formation and breakup during inkjet bioprinting of collagen, fibrinogen, and thrombin solutions.

This paper develops a 3D bioprinting method using co-cultured spheroids to create scaffold-free bone tissue constructs with improved osteogenic differentiation and cell viability.

This study introduces a new bioprinting method using a yield-stress granular gel to position and assemble tissue spheroids in 3D for cartilage and bone tissue construction.