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— NEXT-GEN BIOMEDICAL TECHNOLOGY

BIO 3D
Printing

Developed & deployed by Garuda3D – India’s advanced bioprinting platform

Bio Atom, Bio Morph and Bio Pro 3D bioprinters

Advanced 3D bioprinting technology in India for precise tissue engineering using living cells and biomaterials—delivering high-precision, reliable results for biomedical research labs and biotech companies.

DEFINED

What is Bio 3D Printing?

ASTM F3659-24 STANDARD DEFINITION

"The three-dimensional printing of materials (bioinks) to fabricate structured constructs for use in biological or medical applications."

Bio 3D printing enables precise deposition of cell-laden bioinks used in bio 3D printing, composed of living cells, biomaterials, and bioactive molecules. Using computer-aided design, it allows the fabrication of complex tissue constructs that closely mimic native biological structures. The ultimate goal is to recreate, repair, and regenerate damaged tissues and organs.

REGENERATIVE MEDICINE TISSUE ENGINEERING DRUG TESTING DISEASE MODELLING ORGAN RESEARCH EXTRUSION / MICRO-DISPENSING BASED TEMPERATURE & STERILITY CONTROLLED

6+

CORE APPLICATIONS

3

BIO PRINTER PLATFORMS

Multi-Material

CAPABILITY

Research-Grade

POTENTIAL

Engineered for Excellence in Bioprinting

In-house Design

Complete control over design and manufacturing ensures the highest quality standards and seamless integration.

Multi-Domain Expertise

Extensive experience across bio, food, pellet, and hybrid extrusion systems for diverse industrial applications.

Customizable Platforms

Modular systems tailored to meet specific research needs, from academic labs to advanced biotech R&D.

Precision Engineering

A strong focus on precision extrusion ensures consistent flow rates and high-resolution biological constructs.

Proven Deployment

Reliable systems with a track record of real-world deployment across leading research institutions.

Extrusion-Based Bio 3D Printing Capabilities

Advanced bio 3D printing capabilities designed to support complex research workflows, enabling precision, flexibility, and repeatability across a wide range of biomaterials and experimental setups.

Multi-Material Printing

Simultaneous or sequential deposition of multiple bioinks.

Precision Micro-Dispensing & Flow Control

Accurate control of flow rate, pressure, and deposition for delicate bioinks

Temperature-Controlled Material Handling

Supports thermally sensitive hydrogels and bioinks with stable deposition conditions

Modular Extrusion Architecture

Easy customization for different research requirements.

Scaffold & Soft Tissue Fabrication

Enables development of both structural and soft constructs.

Research-Grade Repeatability

Consistent output for experimental validation.

Shear-Sensitive Material Handling

Designed to minimize cell damage during extrusion of delicate bioinks

Crosslinking & Post-Processing Compatibility

Compatible with UV, ionic, and thermal crosslinking protocols for post-print structure stabilisation.

Bio 3D Printing Technology and Applications

Icon representing 3D bioprinting for tissue engineering and regenerative scaffolds 01 — TISSUE ENG.

Tissue Engineering

Enables fabrication of tissue engineering scaffolds using precise deposition of biomaterials and living cells for regenerative applications.

Icon for organ transplantation research and functional organ modeling 02 — TRANSPLANT RES.

Organ Transplantation Research

Develop bioprinted organ models for transplantation research, addressing donor shortages and enabling functional testing.

Icon symbolizing regenerative medicine and patient-specific tissue therapy 03 — REGEN. MED.

Regenerative Medicine

Supports regenerative medicine bioprinting for personalised therapies and advanced tissue reconstruction.

Icon for cancer research and bioprinted 3D tumor models 04 — ONCOLOGY

Cancer Research

Bioprinted tumor models create accurate in-vitro environments for cancer studies.

Icon representing drug efficacy testing and pharmaceutical toxicity models 05 — PHARMA

Drug Testing & Development

Provides drug testing tissue models for accurate drug efficacy and toxicity analysis, reducing reliance on animal testing.

Icon for university biomedical research and bioprinting education 06 — EDUCATION

Education & Research

Bio 3D printers for biomedical research labs and universities, enabling hands-on learning in tissue engineering and bioprinting.

Why Trust Garuda3D?

In-house R&D and manufacturing
Experience across bio, food, and advanced extrusion systems
Customizable platforms for research needs
Proven engineering capability

Supported Materials & Compatibility

Hydrogels (Alginate, Gelatin, Collagen, Fibrin-based)

Polymer blends for scaffold structures

Cell-laden bioinks (research environments)

Custom experimental formulations

Viscous biomaterials & composite bioinks

👉 Note: Material compatibility depends on viscosity, crosslinking method, and experimental setup.

Choose Your Bio System

BIO ATOM

ENTRY RESEARCH

Bio Atom is a compact and accessible bio 3D printer designed for early-stage research, academic labs, and biomaterial experimentation with precise bioink deposition.

BUILD VOLUME

120 × 120 × 70 mm

EXTRUDER

Single Bio Extrusion

PRECISION

High-precision single-channel micro-dispensing

COMPATIBILITY

Standard Bioinks & Hydrogels

PRINT MODES

Single • Scaffold

  • Ideal for universities & entry-level research labs
  • Supports hydrogels and soft biomaterials
  • User-friendly workflow for quick adoption
  • Compact footprint for lab environments
  • Sterile printing compatibility
  • Cost-effective entry into bioprinting

BIO PRO

FLAGSHIP SYSTEM

Bio PRO is an advanced dual-extrusion bio 3D printer designed for complex bioprinting applications. It enables multi-material printing for creating sophisticated biological structures and research models.

BUILD VOLUME

130 × 100 × 75 mm

EXTRUDER

Pneumatic 3-head system

PRECISION

Up to 30 mm/s

LAYER RESOLUTION

Ultra-high precision bioprinting

TEMPERATURE

Controlled extrusion & build platform

PRINT MODES

Dual Material

  • Pneumatic extrusion for multi-material bioprinting
  • Enables complex and layered tissue structures
  • High precision and repeatability
  • Compatible with diverse bioinks and hydrogels
  • Designed for biotech, pharma, and advanced R&D
  • Supports complex research workflows
  • Supports multi-bioink gradients and layered tissue structures
  • Compatible with advanced research workflows
  • Optional controlled environment chamber
  • Designed for advanced research workflows

WORKFLOW

HOW EXTRUSION-BASED BIO 3D PRINTING WORKS

01

BIOINK PREPARATION

Hydrogels, polymers, or cell-laden materials are prepared

02

PRECISION DEPOSITION

Material is deposited layer-by-layer using precision extrusion

03

STRUCTURE FORMATION

Scaffolds or tissue-like structures are formed

04

POST-PROCESSING

Crosslinking, curing, or incubation depending on application

Frequently Asked Questions

Bio 3D printing is the three-dimensional printing of materials (bioinks) to fabricate structured constructs for use in biological or medical applications. It enables the precise, layer-by-layer deposition of bioinks — comprising living cells, biomaterials, and bioactive molecules — using computer-aided design to create complex, functional tissue constructs that closely mimic native tissues.

Bio 3D printers can print a variety of materials including collagen, chitosan, gelatin, alginate, and various bioinks. Material viscosity plays a key role — thick materials extruded through small tips are more difficult to print compared to thinner materials with larger tips.

Bio 3D printing plays a vital role in regenerative medicine, disease modelling, and drug testing. It enables the fabrication of scaffolds for tissue regeneration, aiding in the repair or replacement of damaged tissues such as skin, bone, and cartilage. It also facilitates the creation of tumor models for studying cancer progression and provides a more physiologically relevant platform for drug testing, potentially reducing the need for animal testing.

Yes, it enables development of functional organ models, reducing dependency on donors.

The technology supports the development of personalised therapies by creating patient-specific tissue models, enhancing treatment effectiveness. Institutions also utilise bio 3D printers like the Bio ATOM for educational purposes and to advance research in biomedical fields, providing hands-on experience in tissue engineering and regenerative medicine.

Different levels of bio 3D printers are available in the market, ranging from basic extrusion to advanced cell formation, and from single-head to multi-head tools. Garuda3D has developed a single-head (extrusion head) bio 3D printer that satisfies the basic needs of research organisations, equipped with a single extruder (Bio-Head) using a standard BD 10 mL syringe with interchangeable Luer-lock tips.

"Advanced FFF & SSE 3D Printing Solutions for Real-World Manufacturing"

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