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Biomedicine

Micro-nano 3D printing technology is characterised by its high precision, efficiency, quality and design freedom, and its ability to customise processing molds according to experimental research and development needs. It has significant advantages in the biomedical field and can be used for innovative research and development in drug screening, disease studies, tissue engineering, central nervous system regeneration, and cell-seeding scaffolds.

Application Cases

Tilted microneedle array

  • 10 μm

    Optical resolution

  • 60 Tilt angle

    angle of inclination

  • 250 μm

    Point height

Tilted microneedle array

The dimensions of the microneedle arrays are 9.6 × 5.4 × 2 mm³. They feature varying diameters and heights, a tilt angle of 60°, tip heights ranging from 250 to 1000 μm, and base diameters ranging from 50 to 200 μm. Tilted microneedle arrays are widely used in the field of medical aesthetics, where they are employed as drug delivery carriers.

  • 10 μm

    Optical resolution

  • 60 Tilt angle

    angle of inclination

  • 250 μm

    Point height

  • 50 μm

    Base diameter

Capillary organ-on-a-chip

  • 2 μm

    Optical resolution

  • 14 line

    Parallel Channel

  • 300 μm

    Small hole size in the trapezoidal interface

Capillary organ-on-a-chip

The combination of high-precision micro-nano 3D printing and microfluidic technology can be applied to disease models, new drug development, and physiological models. The overall size is 18 x 10 x 5 mm³.

  • 2 μm

    Optical resolution

  • 14 line

    Parallel Channel

  • 300 μm

    Small hole size in the trapezoidal interface

  • 7-10 μm

    pore size

Hollow Scaffold

  • 10 μm

    Optical resolution

  • BIO

    Biocompatibility

Hollow Scaffold

The dimensions of the left scaffold are 3.4 × 3.4 × 15.4 mm³, the minimum side length of the right scaffold's rhombus is 250 μm. PμSL technology facilitates the fabrication of hollow scaffold structures, which hold considerable promise for the production of composite vascular scaffolds characterised by optimal biocompatibility and substantial radial strength.

  • 10 μm

    Optical resolution

  • BIO

    Biocompatibility

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