NanoOne

The fastest high-resolution 3D printer on the market

The NanoOne dispels the myth that 2 photon polymerisation bioprinting is slow.

  • UpNano NanoOne high speed3d printer with sub micrometer resolution using 2PP technology

    Key Features

    • High throughput - > 450mm3 per hour
    • High resolution - Sub-micron resolution down to 170nm
    • High power laser - 1W laser suits production of mesoscale parts
    • Low absorption laser - Compatible with cells, tissue and bioprinting applications
    • Versatile - Suitable for scientific research and batch production
    • Compact - Benchtop form factor
    • Customisable configuration - Modules can be added at any time to suit specific requirements

The NanoOne closes the gap between conventional 2PP (2 Photon Polymerisation) printing and microstereolithography. It is the first commercial system that is able to produce components in the centimetre range (up to 42mm) with structural details in the range of 170nm at extraordinary speed.

NanoOne Applications

The NanoOne is suited to applications including:

  • Micro-Optics
  • Micro-Mechanics
  • Microfluidics
  • Medical engineering
  • Surface modifications
  • Filter elements
  • and much more!
  • Demonstration of Capabilities

    Run time 2:28 min

    This short video demonstrates the main features and capabilities of the NanoOne 2PP printer. Take note of the speed and precision.

  • UpNano NanoOne 3D printing applications examples

    Application Examples

    Here are some examples of the capabilities of the NanoOne 3D printer that demonstrate the size range of the parts that can be produced and the differing levels of geometric complexity.

  • Demonstration of Speed

    Check out this real time demonstration of the NanoOne printing 121 structures each 4 µm x 4µm x 12 µm in only 30 seconds.

  • 3D printed Fused silica parts printed with an UpNano NanoOne 3D printer using 2PP technology

    3D Printed Fused Silica Parts

    Using a novel 3-step process, you can print fused silica components in the cm size range with micon scale features with the NanoOne. Featured here:

    1. Fused silica ferrules with inner diameter of 126 µm matching the outer diameter of standard glass fibers. Such ferrules are generally used to mount and connect bare optical glass fibers. Due to the low and perfectly matched thermal expansion coefficient of the fused silica ferrule and optical glass fiber, UpQuartz is an ideal material for this application
    2. Fused silica filter-element with 180 µm pores. The filter is 3.6 mm long and has an inner diameter of 875 µm. The device is equipped with a rim for mounting. The filter element has a high temperature resistance and can withstand extremely harsh chemical conditions, as it is made of fused silica glass
    3. Eiffel Tower, directly printed from UpQuartz, showcasing the obtainable complexity as well as remarkable size that can be achieved with UpQuartz. The tower is 10 mm high and has intricate features that reach into the tens of micrometers range.

  • All
  • Additive Manufacturing
  • AFM/SPM/SNOM
  • Bioprinting
  • CL
  • CLEM
  • Computed Tomography
  • EBSD
  • EDS
  • Electron Beam Lithography (EBL)
  • Electron Microscopy
  • Fabrication
  • FIB
  • In situ
  • Micro XRF
  • Microscopy
  • SEM
  • TEM
  • Thermal Probe Lithography
  • WDS
  • X-ray Imaging
  • X-ray Microscopy