Is a 250 mW laser output power enough for classic 2PP 3D printing?

Yes, absolutely. The NanoOne 250 is designed as an entry-level model for classic 2-photon polymerization (2PP) applications including usage of transparent materials.

What are the key applications of NanoOne 250?

The NanoOne 250 is suitable for applications in micro-optics, micro-mechanics, microfluidics, medical device prototyping and beyond.

What objectives are included with NanoOne 250?

The NanoOne 250 includes the following high-performance objectives40x NA 1.420x NA 0.710x NA 0.4Additionally, there is the option to upgrade for additional objectives.

What is the resolution capability of the NanoOne 250?

The NanoOne 250 can achieve horizontal feature sizes below 150 nm and vertical feature sizes down to 550 nm.

Can the NanoOne 250 be upgraded?

Yes, the NanoOne 250 can be upgraded with a more powerful 1000 mW laser, a Bio Unit for extended bioprinting with living cells, and higher-magnification objectives to expand precision and capability. In addition, we offer a range of modular accessories that can be seamlessly retrofitted at any time, ensuring your system continues to grow and adapt alongside your needs.

What are the typical materials used in NanoOne 250 printing?

The NanoOne 250 is fully compatible with UpNano’s high-performance two-photon resins, specifically engineered for ultrafast, high-resolution printing. As an open material platform, it also supports the use of third-party materials offering flexibility for a wide range of research and application needs.

How large of objects can be printed with the NanoOne 250?

The NanoOne 250 can print objects with a height of 40 mm and volume of 40 x 40 x 40 mm. If a wafer solution is installed, the maximum area is ø100mm and the height 1mm.

What are the advantages of choosing the 1000 mW laser over the 250 mW version?

The increased laser power significantly enhances printing versatility. It enables optimal use of the 5x NA 0.25 objective for producing larger, more robust structures, ideal for components like jigs and fixtures used in precision microfabrication. Additionally, the higher energy output supports printing greater volumes of transparent materials and proves especially valuable in material research, where certain resins require elevated energy levels for effective polymerization.

What industries benefit most from NanoOne 1000’s capabilities?

Industries that benefit most from the NanoOne 1000 include micro-optics, semiconductors, microfluidics and advanced manufacturing. Its high power and resolution make it ideal for producing detailed microstructures, components for sensors and complex prototypes at various scales.

What are the main applications of the NanoOne 1000?

The high power laser of the NanoOne 1000 enables both mesoscale printing using low-magnification objectives and maintains excellent compatibility with a wide range of resins including exotic formulations.

How does NanoOne 1000 compare to other 2PP printers in terms of resolution?

The NanoOne 1000 delivers outstanding resolution, achieving feature sizes below 150 nm and surface roughness below 5 nm with its 780 nm wavelength laser. The NanoOne 1000 stands out with its powerful 1000 mW laser – offering exceptional throughput making it ideal for rapid mesoscale printing and high-volume applications.

What is the laser wavelength used by NanoOne 1000?

The NanoOne 1000 uses a 780 nm femtosecond fiber laser as its light source. This infrared wavelength is well-suited for a wide range of standard 2 photon polymerization (2PP) applications.

Can NanoOne 1000 handle both small and large-scale prints?

Yes, the NanoOne 1000 is designed to handle both high-resolution microstructures and larger-scale prints. Its high laser power (1000 mW) and Adaptive Resolution technology allow for speedy printing of mesoscale objects while maintaining fine detail in critical areas.

What materials are compatible with the NanoOne 1000?

The NanoOne 1000 is compatible with a wide range of standard 2PP resins, including fluorescent, non-fluorescent, functional, and bio resins that cure at 780 nm. It supports materials for micro-optics, biomedical devices, microfluidics and general high-resolution prototyping.

Is the NanoOne 1000 suitable for bioprinting applications?s are compatible with the NanoOne 1000?

The NanoOne 1000 can be used for bioprinting applications, especially with compatible fluorescent or bio resins responsive to 780 nm light.

Printers

NanoOne Red

As UpNano’s 780 nm solution for classic 2PP applications, NanoOne Red combines fine-detail printing with the ability to scale to larger parts and more demanding workflows. It supports structures down to the 150 nm range, components beyond 40 mm, and full-surface wafer printing. Two power levels are available, enabling users to select the configuration best suited to their application.

Nano One 250

Average output power of the femtosecond laser 250 mW*

Pulse length of the laser beam 90 fs

40x NA 1.4
20x NA 0.7
10x NA 0.4
Upgrade ability for additional objectives

Nano One 1000

Average output power of the femtosecond laser 1000 mW*

Pulse length of the laser beam 90 fs

40x NA 1.4
20x NA 0.7
10x NA 0.4
5x NA 0.25
Upgrade ability for additional objectives

Customized upgrades for innovative applications

NanoOne printing systems come in a ready-to-use standard configuration, but are also customizable with additional modules to suit specific customer requirements. Below is a glance at the available upgrade options with which you can ensure that your NanoOne green will meet your needs. These upgrades can be easily retrofitted at any time, ensuring your printing system evolves with your changing demands.

See THE Nano One in action

Common Application areas

Specifications of the system

System type

Desktop multiphoton laser lithography system

Printing process

Layer-by-layer 2-photon polymerization

Light source

Femtosecond fiber laser

Laser wavelength

780 nm

Output power of femtosecond laser

250 mW or 1000 mW*

Scanner

Galvanometer scanner

Stage

Long-range piezo stage

Maximum travel range

Up to 120 x 100 x 49 mm

Stage address grid

10 nm

System dimensions

Benchtop system 58.5 x 71.0 x 65.0 cm³

Total weight

124 kg

*Power in the sample depends on the selected objective and is lower than the output power of the laser. For further information, ask the UpNano sales team.

Downloads

Brochure NanoOne

Data sheet NanoOne 250

Data sheet NanoOne 1000

Yes, absolutely. The NanoOne 250 is designed as an entry-level model for classic 2-photon polymerization (2PP) applications including usage of transparent materials.
The NanoOne 250 is suitable for applications in micro-optics, micro-mechanics, microfluidics, medical device prototyping and beyond.
The NanoOne 250 includes the following high-performance objectives
40x NA 1.4
20x NA 0.7
10x NA 0.4
Additionally, there is the option to upgrade for additional objectives.
The NanoOne 250 can achieve horizontal feature sizes below 150 nm and vertical feature sizes down to 550 nm.
Yes, the NanoOne 250 can be upgraded with a more powerful 1000 mW laser, a Bio Unit for extended bioprinting with living cells, and higher-magnification objectives to expand precision and capability. In addition, we offer a range of modular accessories that can be seamlessly retrofitted at any time, ensuring your system continues to grow and adapt alongside your needs.
The NanoOne 250 is fully compatible with UpNano’s high-performance two-photon resins, specifically engineered for ultrafast, high-resolution printing. As an open material platform, it also supports the use of third-party materials offering flexibility for a wide range of research and application needs.
The NanoOne 250 can print objects with a height of 40 mm and volume of 40 x 40 x 40 mm. If a wafer solution is installed, the maximum area is ø100mm and the height 1mm.
The increased laser power significantly enhances printing versatility. It enables optimal use of the 5x NA 0.25 objective for producing larger, more robust structures, ideal for components like jigs and fixtures used in precision microfabrication. Additionally, the higher energy output supports printing greater volumes of transparent materials and proves especially valuable in material research, where certain resins require elevated energy levels for effective polymerization.
Industries that benefit most from the NanoOne 1000 include micro-optics, semiconductors, microfluidics and advanced manufacturing. Its high power and resolution make it ideal for producing detailed microstructures, components for sensors and complex prototypes at various scales.
The high power laser of the NanoOne 1000 enables both mesoscale printing using low-magnification objectives and maintains excellent compatibility with a wide range of resins including exotic formulations.
The NanoOne 1000 delivers outstanding resolution, achieving feature sizes below 150 nm and surface roughness below 5 nm with its 780 nm wavelength laser. The NanoOne 1000 stands out with its powerful 1000 mW laser – offering exceptional throughput making it ideal for rapid mesoscale printing and high-volume applications.
The NanoOne 1000 uses a 780 nm femtosecond fiber laser as its light source. This infrared wavelength is well-suited for a wide range of standard 2 photon polymerization (2PP) applications.
Yes, the NanoOne 1000 is designed to handle both high-resolution microstructures and larger-scale prints. Its high laser power (1000 mW) and Adaptive Resolution technology allow for speedy printing of mesoscale objects while maintaining fine detail in critical areas.
The NanoOne 1000 is compatible with a wide range of standard 2PP resins, including fluorescent, non-fluorescent, functional, and bio resins that cure at 780 nm. It supports materials for micro-optics, biomedical devices, microfluidics and general high-resolution prototyping.
The NanoOne 1000 can be used for bioprinting applications, especially with compatible fluorescent or bio resins responsive to 780 nm light.