Nanotechnology Now

Our NanoNews Digest Sponsors
Heifer International



Home > Press > Use of a high-power laser enables Austrian specialist for 2PP 3D-printing to produce highly precise and fast in the nano-, micro- and meso-range

Abstract:
A high-power laser, optimized optical pathway, a patented adaptive resolution technology and smart algorithms for laser scanning allow high-resolution 3D-printing as never seen before. Parts with nano- and microscale resolution can now be printed across twelve orders of magnitude – within times never achieved previously. This has been accomplished by the UpNano GmbH from Vienna (Austria), a spin-out of the TU Wien, which developed a high-end 2PP 3D-printing system that can produce polymeric parts with a volume ranging from 100 to 1012 cubic micrometer. At the same time the printer allows for a nano- and microscale resolution. Recently the company demonstrated this remarkable capability by printing four models of the Eiffel Tower ranging from 200 micrometers to 4 centimeters – with perfect representation of all minuscule structures within 30 to 540 minutes. With this, 2PP 3D-printing is ready for applications in R&D and industry that seemed so far impossible.

Use of a high-power laser enables Austrian specialist for 2PP 3D-printing to produce highly precise and fast in the nano-, micro- and meso-range

Vienna, Austria | Posted on September 10th, 2020

2-photon polymerization (2PP) 3D-printing is an ultra-precise production technology that so far could only be optimized for a very limited range of scale. Also, production in the centimeter-range (meso-range) took extremely long time and thus was unattractive for quantitative production in industry. The Austrian UpNano GmbH now demonstrates what seemed impossible: Their NanoOne printing system can produce highly precise specimens with nano- and micrometer resolution that range from centi-, to milli- to micrometer in size. And this within minutes.

PHOTONS WITH POWER

„We developed and patented an innovative adaptive resolution technology for our 3D printing system”, explains Peter Gruber, head of technology and co-founder of UpNano. „Together with an optimized optical path and smart algorithms, we can utilize the full laser power up to 1 Watt, which is several times more than in comparable systems.” Such a powerful laser delivers enough energy for high-speed printing especially in the adaptive resolution mode. This, in fact, is a significant advantage compared to other systems that use weaker lasers and are therefore limited in throughput.

„The benefit of this innovation”, adds Bernhard Küenburg, CEO of UpNano, „is most notable in the meso-range. The NanoOne system offers significant faster production times than other systems. Add our patented adaptive resolution technology to this and you end up with a capability to print centimeter large objects with a micrometer resolution in short production cycles.” This algorithm allows a widening of the laser spot up to a factor of 10 in accordance with the specifications of the printed specimen. A simple change of objectives (there are different ones available, ranging from 4x magnification to 100x) allows the production of parts in the micro-range with resolutions at the nanometer scale. This, too, is much faster than other systems thanks to the specific optical pathways, the optimized scan algorithms and the proprietary adaptive resolution technology. In fact, the NanoOne is capable of manufacturing objects with volumes ranging across 12 orders of magnitude. Dimensions in the micrometer-range are equally possible as in the centimeter-range, while maintaining ultra-high resolution. And all that in the shortest possible time

FROM R&D TO INDUSTRY

Thanks to this high versatility, the system has been met with great interest in R&D and in industry right after its introduction. An example for its use in medicine and research is the production of micro needles with tight tolerances and defined features such as the sharp tip, the cannula or reservoir.

Functional micro-mechanic parts reflect another interesting area of application for the UpNano technology. A benchmarking example is a functional spring with a height of 6 millimeter printed in less than 6 minutes or two-components parts with included moveable elements, printed in single printing jobs for med-tech applications.

Filters are the third of numerous examples demonstrating the size-range of the NanoOne. Sizes of several square centimeters with pore sizes in the low single digit micrometer-range can be printed within hours. “Such filters have exactly defined pore sizes for 100 percent of all pores”, explains Bernhard Küenburg. Variations in pore sizes are thus as much history as are unsatisfying filter results. In this way, the NanoOne of UpNano offers a new horizon for filtering and separation processes – a horizon that exemplifies the innovative power of the company.

####

About UpNano
Founded in September 2018 as a spin out of the TU Wien, UpNano is a Vienna-based high-tech company with the focus on development, manufacturing and commercialization of high-resolution 3D printing systems based on 2-photon polymerization. With the first commercial product, the printing system NanoOne, microparts with structure details ≥170 nm can be printed. Due to the very fast printing process, also meso scale parts up to several centimeters in height can be realized.

For more information, please click here

Contacts:
Denise Mandt
Head Marketing & Sales, Founder
Modecenterstrasse 22, D36
1030 Vienna, Austria
T +43 (0) 676 3943728
E
W www.upnano.at
L www.linkedin.com/company/upnano
T twitter.com/upnano_gmbh


Copy Editing & Distribution
PR&D – Public Relations for Research & Education
Dr. Barbara Bauder
Mariannengasse 8
1090 Vienna, Austria
T +43 1 505 70 44
M +43 664 1576 350
E
W http://www.prd.at/

Copyright © UpNano

If you have a comment, please Contact us.

Issuers of news releases, not 7th Wave, Inc. or Nanotechnology Now, are solely responsible for the accuracy of the content.

Bookmark:
Delicious Digg Newsvine Google Yahoo Reddit Magnoliacom Furl Facebook

Related News Press

News and information

Brought into line: FAU physicists control the flow of electron pulses through a nanostructure channel September 24th, 2021

Nanocellulose decorated with proteins is suitable for 3D cell culturing September 24th, 2021

Development of dendritic-network-implementable artificial neurofiber transistors: Transistors with a fibrous architecture similar to those of neurons are capable of forming artificial neural networks. Fibrous networks can be used in smart wearable devices and robots September 24th, 2021

Researchers use breakthrough method to answer key question about electron states September 24th, 2021

3D & 4D printing/Additive-manufacturing

New 3D-Bioprinter + Bioink Use Living Cells Straight From Culture Plate: Cell models mimicking natural tissue topography herald new era for biomedical research April 13th, 2021

Dynamic 3D printing process features a light-driven twist: Light provides freedom to control each layer and improves precision and speed February 4th, 2021

Russian scientists improve 3D printing technology for aerospace composites using oil waste November 27th, 2020

Materials scientists learn how to make liquid crystal shape-shift September 25th, 2020

Possible Futures

Micro-scale opto-thermo-mechanical actuation in the dry adhesive regime Peer-Reviewed Publication September 24th, 2021

MXene-GaN van der Waals metal-semiconductor junctions for high performance photodetection September 24th, 2021

Nanocellulose decorated with proteins is suitable for 3D cell culturing September 24th, 2021

Development of dendritic-network-implementable artificial neurofiber transistors: Transistors with a fibrous architecture similar to those of neurons are capable of forming artificial neural networks. Fibrous networks can be used in smart wearable devices and robots September 24th, 2021

Announcements

Brought into line: FAU physicists control the flow of electron pulses through a nanostructure channel September 24th, 2021

Nanocellulose decorated with proteins is suitable for 3D cell culturing September 24th, 2021

Development of dendritic-network-implementable artificial neurofiber transistors: Transistors with a fibrous architecture similar to those of neurons are capable of forming artificial neural networks. Fibrous networks can be used in smart wearable devices and robots September 24th, 2021

Researchers use breakthrough method to answer key question about electron states September 24th, 2021

NanoNews-Digest
The latest news from around the world, FREE




  Premium Products
NanoNews-Custom
Only the news you want to read!
 Learn More
NanoStrategies
Full-service, expert consulting
 Learn More











ASP
Nanotechnology Now Featured Books




NNN

The Hunger Project