Bioceramics2026-03-24T10:02:31+00:00

Bioceramics

  • 1

    Hydroxyapatite (HAP)

    Hydroxyapatite (HAP) ceramic slurry is a bioactive calcium phosphate material designed for high-precision ceramic 3D printing applications..

  • 2

    Tricalcium Phosphate (TCP)

    Tricalcium phosphate (TCP) ceramic slurry is a bioresorbable ceramic material developed for advanced biomedical 3D printing applications.

What Are Bioceramics?

Bioceramics are a class of ceramic materials specifically designed for biomedical applications, particularly for interaction with biological tissues. Common bioceramics include calcium phosphate–based materials such as hydroxyapatite (HAP) and tricalcium phosphate (TCP).

These materials are known for their biocompatibility, bioactivity, and ability to support bone regeneration. Unlike structural ceramics, bioceramics are often used in applications where controlled degradation, osseointegration, and biological response are critical. With the advancement of ceramic 3D printing, bioceramics enable the fabrication of patient-specific implants and porous scaffolds for tissue engineering.

Product Introduction

Product Introductionn

Silicon Carbide Material

Hydroxyapatite (HAP)
Ceramic Slurry

Hydroxyapatite (HAP) slurry is formulated to replicate the mineral composition of natural bone, offering excellent biocompatibility and bioactivity. It features optimized solid loading and stable rheological properties, ensuring reliable printability in processes such as DLP and SLA.
Applications:
Bone tissue engineering scaffolds.
Dental implants and coatings.
Orthopedic implants.
Regenerative medicine research.
Customized biomedical structures via 3D printing.

Silicon Nitride Materials

Tricalcium Phosphate (TCP)
Ceramic Slurry

Tricalcium Phosphate (TCP slurry is engineered with controlled particle distribution and rheological stability to ensure consistent printing performance. It enables the fabrication of complex porous structures and supports gradual material resorption in biological environments. This makes it suitable for applications requiring temporary structural support and tissue regeneration.
Applications:
Tissue engineering scaffolds.
Drug delivery systems.
Orthopedic research.
Customized biodegradable implants.

Printing Case

Biomedical Applications

Bioceramics such as hydroxyapatite (HAP) and tricalcium phosphate (TCP) are widely used in biomedical applications due to their biocompatibility and bioactivity. They are commonly applied in bone grafts, dental implants, and orthopedic devices, where they support bone integration and tissue regeneration. Their ability to interact with biological tissues makes them essential materials in modern medical treatments.

Research Applications

In research and laboratory settings, bioceramics are extensively used in tissue engineering, regenerative medicine, and biomaterials studies. Materials like HAP and TCP are applied to investigate cell behavior, scaffold design, and controlled degradation, as well as to develop advanced ceramic 3D printing solutions for customized biomedical structures.

Material parameters

Bioceramics

Hydroxyapatite (HAP)Ceramic Slurry

Material ModelADT-HAP-HO01-B
Powder
Purity (%)≥ 96
Slurry
Solid Content (vol%)36
Solid Content (wt%)61
Viscosity (50 s⁻¹) (Pa·s)¹5.6
Slurry Density (g/cm³)1.85
Shelf Life12 Months
Sintered Ceramics
Sintering Temperature (°C)1300
Theoretical Density (g/cm³)3.16
Actual Density (g/cm³)2.9
Relative Density (%)91.8
Porosity (%)8.2
Three-point Bending Strength (MPa)²122.75
Compressive Strength (MPa)55.2
Max. Working Temperature (°C)1100

FAQ: Oxide Ceramics

HAP is more chemically stable and maintains structural integrity over longer periods, while TCP exhibits faster resorption, making it suitable for applications requiring gradual material replacement by natural bone.

Porosity directly affects cell infiltration, nutrient transport, and vascularization. Optimizing pore size and interconnectivity is critical for achieving effective bone regeneration and mechanical stability.

Bioceramic slurries should exhibit shear-thinning behavior, stable dispersion, and controlled viscosity to ensure uniform layer formation and high-resolution printing in DLP or SLA processes.

The degradation rate of TCP influences how quickly the scaffold is resorbed and replaced by new bone tissue. Controlled degradation is essential to match the rate of tissue regeneration and maintain temporary structural support.

Bioactivity depends on surface chemistry, crystallinity, porosity, and microstructure. Proper control of these factors enhances cell attachment and promotes bone tissue integration.

Sintering temperature affects phase stability, density, and mechanical strength. Excessive temperatures may lead to phase decomposition, while insufficient sintering can result in poor mechanical performance

Key challenges include achieving uniform porosity, maintaining structural integrity during debinding and sintering, and balancing mechanical strength with biological performance.

A well-controlled particle size distribution improves slurry stability, packing density, and sintering behavior, leading to better dimensional accuracy and final part quality.

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