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3D Bioprinters

Our high-precision extrusion-based bioprinters are called MITO, from the root word "mitosis" of cell division

Bioprinting an 85-Layer Anatomical Ear Construct | Avay MITO Walkthrough & Features
Avay Biosciences MITO Ultra flagship automated 3D bioprinter featuring a positive-pressure HEPA enclosure and advanced multi-head biofabrication gantry

MITO Ultra

  • Print Head Temperature: 4°C to 80°C

  • Print Bed Temperature: 10°C to 60°C

  • No. of Heads: 6 with 4 swappable positions 

  • UV Curing: 365nm or 405nm, 420 nm, 485 nm, 520 nm

  • Hepa Availability: UV-C sterilisation

  • Additional Heads: Cell deposition head with cell homogeiser, pneumatic head, thermoplastic print head and more

Avay Biosciences MITO Pro modular 3-toolhead benchtop 3D bioprinter with precision Peltier temperature-regulated print bed for academic laboratories

MITO Pro

  • Print Head Temperature: 4°C to 80°C

  • Print Bed Temperature: 10°C to 60°C

  • No. of Heads: 3

  • UV Curing: 365nm, 405nm, 420 nm, 485 nm, 520 nm

  • Hepa Availability: UV-C sterilisation

  • Additional Heads: No

Modular Toolheads

For Advanced Biofabrication

MITO bioprinter optical camera head capturing high-definition images for in-situ documentation of rapid scaffold iterations

Cell Deposition Head

Prevents the settling of cells when dispensing to ensure the viability of live multilayer constructs

MITO high-temperature melt extruder head compounding polymer powder admixtures for rigid biomechanical scaffold printing

Motor Driven Head

Ensures highly controlled flow rates to precisely handle a wide range of viscous bioinks

MITO pneumatic extrusion head providing fine pressure-controlled micro-dispensing for thermosensitive bioinks and collagen hydrogels

UV Curing Head

Build stronger scaffolding architectures by utilizing crosslinkers of various wavelengths

Camera Head

Capture HD images for seamless documentation of rapid iterations in your scaffold designs

MITO active cell deposition head with anti-settling agitation mechanism for high-viability multilayer tissue constructs

Melt Extruder Head

Allows for admixtures of powder, enabling the printing of innovative new polymer combinations.

Precision motor-driven mechanical extruder head delivering controlled volumetric flow rates for high-viscosity bioinks

Extrusion Head

Delivers pressure-controlled deposition specifically tailored for hydrogels and thermo-sensitive bioinks

MITO multi-wavelength UV photocrosslinking curing head mounted on the print carriage for real-time polymer stabilization
Multi Material Printing in MITO
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FRESH Bioprinting Timelapse of Carotid Artery
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Bioprinting an 85-Layer Anatomical Ear Construct | Avay MITO Walkthrough & Features
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BioSlice Software

Transform complex biological designs into reproducible living structures with an intuitive slicing and printing interface built specifically for tissue engineering

BioSlice software workspace highlighting linear, concentric, hexagonal, and wavy infill patterns to tune mechanical stiffness and scaffold porosity

Customizable Infill Patterns

Choose from linear, concentric, hexagonal, or wavy infills to precisely tune the mechanical stiffness and porosity

Draw-and-Print

Instantly translate custom 2D sketches into printed structures directly within the interface

Direct draw-and-print tool in BioSlice translating 2D vector sketches instantly into print paths without CAD modeling
Direct draw-and-print tool in BioSlice translating 2D vector sketches instantly into print paths without CAD modeling
Digital toolpath simulation in BioSlice showing non-planar printing and overhang stability for complex organic anatomical scaffolds without sagging

Complex Architecture & Overhang Fidelity

Execute intricate, organic geometries and overhang capabilities with high fidelity for complex biological shapes and non-planar prints

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