RESEARCH
TAVROQ Research explores technologies and applications that extend beyond today's established manufacturing practices. Working across additive manufacturing, materials, healthcare, design, and digital fabrication, we collaborate with researchers, universities, and industry partners to investigate emerging ideas and translate experimental knowledge into real-world possibilities. Our research ranges from medical and biomedical applications of 3D printing to new material systems, fabrication processes, and interdisciplinary applications. Through experimentation, validation, and collaboration, we aim to create knowledge that can eventually evolve into new technologies, materials, products, and manufacturing capabilities. Research is not separate from what we make. It is how we discover what we may be able to make next.
Projects
3D Bioprinting for Cancer Research MODEL
This technology uses 3D printing to create precisely structured scaffolds for cell culture. By controlling the geometry, porosity, and internal environment of the scaffold, researchers can provide suitable conditions for cell growth and develop more realistic models for cancer research, drug testing, and personalized medical applications.
200 μL Sterilizable Pipette Tip
A transparent, non-conductive 200 μL pipette tip made from polypropylene. Designed for secure placement in a sterile rack, the tip and rack can withstand high-temperature, high-pressure steam sterilization, making them suitable for laboratory liquid-handling and cell-culture applications.
Microfluidic System
An integrated set of tools, components, and materials designed for constructing microfluidic systems. Microscale channels enable the precise control, transport, and manipulation of small volumes of liquids. This technology supports a wide range of applications in biomedical research, chemistry, materials science, cell culture, and diagnostic testing.
Modular Mycelium Outdoor Installation
This project integrates mycelium-based materials, paper tubes, 3D-printed components, and electronic systems through digital fabrication. Exhibited outdoors for three months, the modular installation explores the potential of biomaterials in public art and temporary architecture.
AI-Powered 3D Surgical Modeling and Printing
This technology combines Text-to-3D, NVIDIA NeVA, and multiview diffusion models to generate accurate 3D models from medical records and surgical descriptions. The models can be further applied to the production of customized 3D-printed metal implants and surgical guides, improving preoperative planning, implant positioning, and surgical precision.
Modular Mycelium Bricks for Architecture
This research explores optimized brick geometries that support mycelium growth while adapting to different architectural forms. By combining paper-tube structures with rapidly assembled growing modules, the project proposes a lightweight, modular biomaterial system for temporary architecture.