Electrostatic
Multi-Nozzle Printing Technology

for Additive Industrial Microfabrication

Scrona has developed a print engine that brings the ultra-high resolution capability of electrostatic printing into a scalable multi-nozzle MEMS chip with digital control. The unique combination of high resolution and high throughput will reinvent micromanufacturing.

Novel Additive
Manufacturing Technology

Benefits of the Scrona EHD Technology

Resolution

Ultra-high resolution printing 100x better than conventional inkjet.

Material

In addition to inkjet compatible, thin fluids our printheads can process materials that are 100 times more viscous.

3D Printing

Stackable, high aspect ratio printing greater than 10:1 in combination with layer thickness control in the nanometer range.

Smallest Color Photo

Scrona holds the world record for the smallest ever printed color photo.

This image fits on the cross section of a strain of human hair.

Latest news

Zurich, Switzerland - July 9, 2024

Scrona releases new GEN3-8 Printhead
‍
Scrona AG has announced the release of a new MEMS based printhead platfrom. The GEN3-8 features 8 digital nozzles and will be shipped to first cutomers this month. A version featuring 128 nozzles will follow in Q1 2025 on the same printhead platform. The GEN3 printhead platform marks the beginning commercialization of the novel Scrona EHD printing technology

Download Press Release

Zurich, Switzerland - June 5, 2024

Scrona Appoints Dr. Patrick Heissler as New CEO.
‍
Scrona AG, a leading additive manufacturing startup known for holding the world record for the smallest printed color image, has announced the appointment of Dr. Patrick Heissler as its new CEO. Scrona Co-Founder Dr. Patrick Galliker will become CTO and focus on the next evolution of the technology. Scrona Co-Founder Dr. Julian Schneider will become CPO and focus on the industrialization of Scrona's technology.

More coming soon.

Stay tuned!

This website will be updated in the coming days.

Electrostatic
Multi-Nozzle Printing Technology

for Additive Industrial Microfabrication