Desktop high-precision micro nano 3D printing system

The microCube T10 can achieve high optical precision of 10.8 μ m, suitable for scientific research and industrial development applications such as microfluidics, micro components, medical devices, etc. The desktop level body design can flexibly adapt to more working environments, facilitating researchers to complete high-precision machining tasks and significantly improving the convenience and efficiency of micro and nano scale manufacturing.

Meanwhile,The release technology carried by T10 can effectively achieve low release force printing. This characteristic is crucial for the preparation of microfluidic channels with complex structures and precision requirements, ensuring high fidelity and integrity of the molded parts.

T10 supports the printing of photosensitive resin, ceramic slurry, biological ink, hydrogel and other materials, which can meet most research and development needs. In the field of biomedicine, T10 is capable of printing high-precision tissue engineering scaffolds and microfluidic chips, providing tools for research in regenerative medicine, drug screening, and other areas. The compatibility of ceramic slurry makes it possible to manufacture microstructures with high heat resistance and corrosion resistance, and has broad application prospects in the fields of microelectronics and aerospace.

T10, while ensuring micro nano printing accuracy, integrates multiple innovative features through a deep understanding of users' actual needs

1. Touch screen control configuration: 7-inch touch screen, users can intuitively customize and adjust printing parameters and printing modes, simplifying the operation process.

2. Rapid solidification testing supports short-term testing parameter combinations, and the parameters can be adjusted during the printing process, greatly reducing the time required to optimize the process.

3. Supports offline work without connecting to a computer, supports USB flash drives and offline printing, increasing the flexibility and convenience of device use.

4. The precision scraper system can adjust the scraper to assist in material laying, effectively eliminating bubbles generated during the printing process and improving the success rate of printing.

5. The material saving mode only requires 2-5ml of material to start printing, significantly saving consumable costs, especially suitable for experimental research and small batch production.

6. The oxygen permeable membrane printing mode can reduce the release force, adapt to hydrogel printing, and significantly improve the printing success rate of functional materials.