Bio ATOM is an entry-level extrusion-based bioprinter designed for universities, research labs, and biomaterial experimentation. This syringe-based bioprinter supports hydrogel bioinks such as gelatin, alginate, chitosan, and collagen.
Open material platform
Designed for research workflows
Easy to adopt in academic labs
Scalable to advanced systems
Cost-effective entry into bioprinting
Easy setup for academic labs
Compatible with multiple bioinks
Modular upgrade path to Bio MORPH / PRO
The Bio ATOM is Garuda3D's entry-level bio 3D printer designed to satisfy the core bioprinting needs of any research organisation. Equipped with a single Bio-Head extrusion system, it uses standard BD syringes with interchangeable Luer-lock tips for versatile material compatibility.
The system supports 3 mL, 5 mL, and 10 mL BD syringes, enabling researchers to work with small precious biological samples or larger batch productions. Material viscosity governs output — Designed for repeatable experimental outcomes and controlled deposition of bioinks.
Designed with an open Cartesian architecture, the Bio ATOM is built for laboratories that need a dependable, affordable entry-point into additive biofabrication without compromising on precision or material breadth. Designed for repeatable experimental outcomes and controlled deposition of sensitive bioinks.
The Bio ATOM supports a wide spectrum of biological materials suited for tissue engineering, scaffold fabrication, and drug delivery research. Material suitability is governed by viscosity — lower-viscosity bioinks paired with appropriately sized Luer-lock tips produce the most consistent deposition results.
Thick, high-viscosity materials benefit from larger tip gauges and lower feed rates. Garuda3D recommends testing viscosity parameters prior to full-run fabrication to establish optimal print parameters for each specific formulation. NOTE : Material compatibility depends on viscosity, crosslinking method, and experimental setup.
Viscosity Advisory: Thicker materials extruded through small-gauge tips require greater extrusion force. Calibrate feed rate and tip selection together to maintain structural fidelity across all print layers.
Supports bioinks with viscosity ranging from low-viscosity hydrogels to semi-viscous biomaterials. Compatibility depends on material rheology and crosslinking method.
Technical Data
Ideal starting point for academic labs and early-stage research. Reliable extrusion-based bioprinting with essential capabilities.
Enhanced research platform with UV curing and pressure monitoring for higher precision, control, and material capability.