The Sikder Lab is equipped with cutting-edge fabrication and testing systems to advance regenerative implant research. We house high- and low-temperature Fused Filament Fabrication (FFF) 3D printers for biomaterial processing, along with a state-of-the-art bioprinter for developing live-tissue constructs. Our facilities include wet chemistry setups for material synthesis, multiple extruders for custom biomaterial formulation, and in-house developed platforms for applying controlled mechanical and electrical stimulation. Additionally, we have customized systems to measure electrical field generation in smart piezoelectric implants, enabling precise evaluation of their bioelectric properties.

This 3D printing system is designed for industrial and research applications. Its independent Dual Extrusion (IDEX) technology allows the use of two different print heads to work independently, enabling efficient multi-material printing or simultaneous printing of duplicate parts. The extruders can handle various materials, making the equipment versatile for complex projects.

This is a high-temperature 3D printer designed for industrial-grade materials such as PEEK, PEI, and other high-performance polymers. It features a heated chamber, high-temperature nozzles, and a build plate that enables precise and reliable printing of strong, heat-resistant parts. Its ability to handle advanced materials makes it well-suited for research applications and to produce parts that require durability and high thermal resistance.

This 3D printer is known for its reliability, ease of use, and high-quality prints. It supports a wide range of materials, including PLA, PETG, and ABS, with features such as automatic bed leveling and user-friendly interface. The open-source design allows for customization, making it versatile for projects in prototyping, education, and small-scale manufacturing.

This filament maker is designed to recycle plastic into 3D printing filament. It offers precise control over filament diameter, ensuring consistent quality for 3D printing. It supports a variety of thermoplastics, making it ideal for sustainable manufacturing, research, and custom filament production in education, prototyping, and material development.

This 3D printer is designed for bioprinting applications, allowing for the precise fabrication of tissue and organ models. It features multiple print heads, enabling the use of various bioinks and materials simultaneously. With a user-friendly interface and high precision, it supports complec research in tissue engineering and regenerative medicine. In addition, this system offers temperature-controlled print heads and a steril printing environment, allowing for the fabrication of cell-laden constructs and making it ideal for biomedical applications.