CIP vs SIP: Key Differences in Bioreactor Cleaning
If you run a reusable stainless-steel bioreactor, the rule is simple: CIP removes residue, SIP kills microbes, and you need both in that order. For bioprocess engineers and cultivated meat...
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Axolotl Biosystems | SKU:
Axo A6 Bioprinting System
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In stock. Ships globally direct from Axolotl Biosystems to research and production facilities.
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Orders fulfilled directly by Axolotl Biosystems with temperature-controlled shipping where required.
Your local duties & taxes are payable where applicable.
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Support
Purchase includes full technical documentation (CoAs, Manuals, or Protocols) provided automatically. Direct application support included from Axolotl Biosystems to ensure successful implementation.
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VAT handled per vendor jurisdiction.
Your local duties & taxes are payable where applicable.
Card payments process immediately. Bank transfer and PO orders process upon payment receipt.
Legal
Legal
Most products require no additional agreements. Cell lines and certain biological materials require a Material Transfer Agreement (MTA) on first purchase from each supplier. We handle this digitally - both parties sign online before shipment. Subsequent orders from the same supplier proceed immediately.
The Axo A6 Bioprinting System is an advanced, high-throughput biofabrication station designed for complex multi-phase and multi-material bioprinting. As a versatile multitasking platform, it features six independent printhead slots, allowing researchers to integrate a wider array of biofabrication modalities—including pneumatic, mechanical, and melt electrowriting—into a single seamless process. This system is engineered for the creation of intricate 3D living tissues and submicron scaffolds with a precision resolution of 1 µm.
The A6 supports a highly modular ecosystem of intelligent printheads, including Heated (up to 265°C), Cooled (down to 3°C), and specialized Syringe Pump options for varied material viscosities. Unique to the Axo series, the system integrates Melt Electrowriting (MEW) and Cell Electrowriting printheads, utilizing high-voltage precision (0 kV-15 kV DC) to produce ultra-thin fibers at the submicron level. To ensure material stability, the platform includes a liquid-based cooling system for the printbed, capable of reaching -10°C, making it compatible with sensitive biomaterials like Collagen and Matrigel across various formats such as well-plates, petri dishes, and glass slides.
Photocrosslinking is managed through versatile curing options, including UV-LED (365nm to 520nm) and a high-precision UV-Laser (405nm, 50mW) toolhead. Operations are streamlined via the AxoSuite software, which features a unique "Protocols" tool for material profile management and real-time monitoring of the built-in air compressor. Safety and sterility are maintained through a HEPA filter system and UV-C sterilization, while the inclusion of Starter Kits (Bioink, UV Curing, and Scaffold) and online training ensures the platform is ready for immediate research in tissue engineering and regenerative medicine.
For research use only. Not for human clinical or diagnostic applications.
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Regulatory complianceISO 9001:2015, CE
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Scale compatibilityLab scale
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Validation status
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Application specific
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Dimensions (H×W×D cm)
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Equipment Sterilization method
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Technology typePneumatic Extrusion, Melt Electrowriting, Syringe Pump
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Temperature Max (°C)
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Temperature Min (°C)
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Recipe-Based ControlYes
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Remote MonitoringYes
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Interface ConnectivityUSB, Ethernet
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Fit-for-Purpose CustomizationYes
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XY Precision
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Z Precision
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Pressure Resolution
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High Voltage (MEW)
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Current Range (MEW)
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Printing Velocity
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Layer Resolution
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Software Compliance
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Operating Voltage VDC
Cellag Bio is the structured intelligence layer for cultivated meat R&D — scattered published research distilled into decision-ready records: what worked, what failed, the likely cause, and what to do instead. Before committing budget to a medium, reagent, or cell line, check the evidence behind it: real experimental outcomes and failure modes, not marketing claims.
Search by media, reagent, cell line or species (e.g. "Beefy-9" or "B8") to find the records that use it.
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Case Study: Alarm Systems in Cultivated Meat Bioreactors
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Analysing Growth Factor Stability: Methods and Metrics
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Optimising Cell Lines for Serum-Free Media with Gene Editing
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Synthetic Gene Circuits for Cell Differentiation
If you can expand cells but can’t switch them into the right fate at the right time, your process will stall at differentiation. That is the core point here: synthetic...
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kLa Measurement Methods for Bioreactor Scale-Up
If you compare kLa values without matching the method, medium, temperature, and probe response, you can make the wrong scale-up call. For bioprocess engineers, cell culture scientists, and cultivated meat...
